lirtures, Vol. 28, No. 2, pp. 103-119. 1996 Copyright 0 1996 Elsevier Science Ltd Printed in Great Britain. All rights reserved 0016-3287196 $15.00 + 0.00
Pergamon
0016-3287(95)00083-6
THE IMPLICATIONS OF INNOVATION FOR HUMAN RESOURCE STRATEGIES Joanne Johnson, John R Baldwin and Brent Diverty
This article examines three issues. The first is the pervasiveness of technology use and the impact of technology use on performance in the Canadian manufacturing sector. The use of advanced technologies, particularly labour-enhancing ones, is found to be widespread. A strong connection between technology adoption and superior performance is also found. The second section examines the relationship between technology adoption and training in manufacturing firms. Firms using either labour-saving or labour-enhancing technologies are found to be more likely to train. The third section expands this analysis to examine how innovation-related strategies and activities are related to training. Innovation is found to be a key driver behind training in all sectors. Copyright 0 1996 Elsevier Science Ltd
A firm’s
success depends
of inputs,
physical
products
and processes.
into new products
products
and
enhance
the
demanding
Innovation
of markets
a strong
impetus
processes.
Innovative
and
The
of their
greater
attention
the
to
on
production
knowledge-knowledge and customer
continually
competitive an ongoing costs.
tastes--into
new knowledge
affects both firms and workers.
of technological
to innovate
products
abilities,
process that transforms
activity
forces
increasingly
and transform
worker
is the general
for firms
value
to acquire
technologies,
and processes.
Globalization created
on its ability
processes,
change with
environment basis,
while
Technological
together
respect
to both
forces at the
have their
firms same
advancements
to time
have
Joanne Johnson,
John R Baldwin and Brent Diverty may be contacted at the Micro-Economic Analysis Division, Statistics Canada, Ottawa, Ontario KlA OT6, Canada (Tel: 613 951 3547; fax: 613 951 5403). This is the edited version of a paper prepared for the seminar ‘Preparing Europeans for the Information Society’, held at UNESCO, Paris, 23-25 March 1995, sponsored by the European Commission and UNESCO and first presented in the “Success, Innovation and Human Resource proceedings of that seminar. The complete paper, entitled Strategies’, may be obtained by contacting the authors.
103
Implications
of innovation
for human resource strategies: J Johnson et al
and revolutionized the production process; they have improved communications shortened the production runs necessary for fully exploiting economies of scale. The result has been to increase the intensity The introduction
the business environment. flow
within
mainframe
the firm.
business.
information
management technologies
also allow firms
of information
to maintain
to customer
information
wage paid by firms.
and
on all facets of the of the
from customers to producers. They requests.
Information
an ongoing dialogue with their suppliers
and allow firms to grow. As productivity
Personal
the task of middle
the external communications
supply shortages. Innovation and technical change, when implemented productivity
altered
of information
to replace humans.
that was previously
is inundated with
process directly
has dramatically
affect the organization
also revolutionize
firm. They permit rapid transformation also tie the production
in particular,
technologies
can be programmed
assimilate
Senior
Information
and the necessity to innovate.
technologies,
Information
Robots
computers
management.
of competition
of information
successfully,
lead to increased
increases, typically,
Changes in output and productivity
technologies
and avoid costly
so too does the
both affect the employment
of
firms. As firms adopt new technologies,
their skill
demand that workers
acquire higher skill
knowledge
in the production
involved
human resource requirements innovative
are firms,
through
requirements
change. New technologies
levels. Both the rapidity of change and the tacit process hiring
the more they will
prevent firms
new employees.
from satisfying Consequently,
need to enhance the skills
all their the more
of their employees
through training. Innovative activity extends beyond technological
change. It also involves
the quality of products and/or efficiency of production.
Successful
gains in market share and/or gains in labour productivity. innovative
activity
results
Similar
in job growth and/or wage growth.
activity, like the adoption of new technologies,
improving
innovation brings about to technology adoption, Furthermore,
innovative
requires workers to perform new tasks and
requires the training of workers. This
article
technology
examines
three
issues.
The
first
is the pervasiveness
use and the impact of that use on firm
relationship between technology adoption and training. between innovation, written broadly, and training.
performance.
The
of advanced second is the
The third area is the relationship
Impact of adoption of advanced technologies on performance Technological
change has always had an impact on the organization
of work.
However,
this impact has typically been both slow and confined to limited sectors of the economy. Previously, when new technologies were introduced, some jobs were gradually made obsolete, while others gradually appeared [The Economist (1995)]. Jeremy Rifkin’s claim [Cities (1995)]
that:
in the past, when new technologies replaced workers, a new sector always emerged to absorb those who had lost their jobs. When farm labourers were replaced by ploughs and tractors, manufacturing became a big employer. When much factory work was automated, the service sector took over.’
In contrast, the current technological revolution rapidly permeated all sectors of the economy. technologies
104
involving information technologies has The relatively low cost of information
has made it possible for most firms to join the technology revolution.
Implications
The cheap
processing
power
of microchips
labour-saving
technologies.
Many
thought
arise
the
to
from
computer-controlled
machinery.
humans
jobs
for repetitive
costly
personal
the truly
been the birth
replacement
dramatic
element
manufacturing
process,
of the ‘soft manufacturing’
abilities
of humans.
kind of dexterity labour-enhancing
operate
more
new
reliable,
safe alternative
vehicle
to
systems replace
to customer
efficiently
increased
and computer
wages.
While
to produce demand
implications.
increases
a given output,
for the firm’s
the the
than
the
replace
has been
into a robot. both
First,
labour-saving
firms
that
environment
and
are able enjoy
to
greater
greater success in the market.
greater
production
productivity,
in labour
productivity
this will
be somewhat
output
control
possess the invaluable
and the entire
achieve
has
Furthermore,
technologies
of
into their working
and consequently
networks
rather
that humans
comprised
workers,
revolution
machines.2
is to enhance
needs and subsequently
enable
technologies
be programmed
has several
technologies
necessary
by the
efficient,
labour-enhancing
revolution,
these new technologies
firms to pay higher workers
of these
that can never
technologies,
in responding the
of a host of
notes that ‘soft manufacturing’
than production
technologies
technologies
integrate
Second,
et al
in the 1980s were
and
guided
Bylinsky
on the part of managers
and judgment
information
flexibility
with
efficient
of the information
in that software
The introduction
by a recognition
effectively
gains
labour an
Automated
and are more important
purpose
The
of
provide
like spot-welding.
the development
development
of the era of ‘soft manufacturing’.
differs from traditional
stimulated
has afforded
technological Robots
for human resource strategies: / lohnson
delivery.
However,
production
of innovation
process,
to
thus permitting
reduce
the number
of
offset, ceterisparhs,
and subsequent
increased
demand
for
workers.
Advanced technology use The importance its effect. plants
of advanced
Incidence
using
a technology.
productivity,
Survey
six functional
for
six
groups
on
dangerous,
the
and
of manufacturing
of changes
technologies floor.
provides
categories:
design
information
can be divided
factory
in terms
Technology functional
systems,
manufacturing
labour-enhancing. Labour-saving workers
use
materials-handling
communications,
is measured
both in terms of its incidence of the population
in market
share,
share and wages. of Manufacturing
technology
automated
use is evident
by the percentage
Effect
employment
The 1989 advanced
technology
is measured
and
data on the incidence fabrication
engineering,
systems, and integration
and control?
These
into two types of technologies-labour-saving
consist These
of technologies technologies
that
perform
either the
of
and assembly, inspection and and
assist or
repetitive,
replace
and
often
their range of abilities,
with
tasks of workers.
Labour-enhancing
technologies
permit
workers
to expand
minimal constraints. Computer-aided design technologies permit workers to design entire products instantaneously without having to engage in the costly and time-consuming trial and error process of model building. inspection technologies continually transmit information technologies
to workers, who can resolve problems allow workers to readily access volumes
information
systems
allow
them to devote
relieve
managers
their energies
of the tedious
to problem
solving
as they arise. of information.
task of information and planning.
Communication Manufacturing collection
Similarly,
and
integration
105
Implications of innovation
for human resource strategies: ) Johnson et al
and control technologies acquisition
alleviate managers of the time-consuming
task of information
and permit them to concentrate on honing and coordinating the objectives of
the firm. Patterns of technology adoption across functional
groups are of interest because they
reveal the degree to which different technologies are being integrated. Three combinations of functional
groups, ranging from the most to the least competitive,
the nature of the complementarity The
first
fabrication systems,
combination
includes
and assembly,
and integration
automated
labour-saving
technology
the functional
technologies. use in a fully
and labour-enhancing
used
in
and communications,
and control-all
This
mix
groups.
design
and engineering,
manufacturing
information
groups with the exception of
of functional
groups
represents
integrated factory. It represents a blend of both
technologies.
excluded
because it has by far the lowest
(20.9%),
suggesting
that it involves
are used to explore
across functional
technologies
inspection
material-handling
comprehensive
of technologies
Automated material handling has been
adoption rate of the six functional
highly
specialized
technologies
which
groups are not
applicable to, or compatible with, most production processes, and should not be included in a measure of comprehensive The second combination been omitted. fully
This
technology
is similar
combination
use.
to the first, except that integration and control has
represents comprehensive
technology
use which is not
integrated. The third combination
production
processes,
the fabrication
represents the use of technologies focused on the factory floor
within
a fully
and assembly,
communications
which
control in factories),
integrated factory. These include technologies
from
automatic control devices (a subgroup of inspection
comprises
programmable
controllers
and computers
and
used for
and integration and control groups.
Taking the six individual
functional
groups and the three combinations
of functional
groups together yields a set of nine technology groups for study. The first two functional groups
comprise
labour-enhancing labour-saving combination
labour-saving technologies.
technologies, The
and labour-enhancing are used explicitly,
while
combinations
technologies.
the
latter
represent
When
a
four
consist
mixture
the terms functional
of
of both
group or
they refer only to that particular subset of the technology
groups.
Extent of technology use in Canada Use of advanced technologies
is widespread in Canadian manufacturing.
88.0% of shipments were produced in establishments
In 1989,
some
that use at least one of the advanced
manufacturing technologies. In general, the labour-enhancing technologies greatest adoption rate (Figure 7). Some 79.0% of shipments in 1989 establishments using technologies from the inspection and communications
enjoyed the came from group. The
inspection and communications group is followed by design and engineering (52.1%), manufacturing information systems (51.2%), and integration and control (39.8%). The labour-saving
technologies
have not achieved such widespread
assembly were adopted by 46.7% were adopted by just 18.4%.
of firms,
use. Fabrication
and
while automated materials handling systems
Adoption rates for the combinations of functional groups are low. Combination 1 has a shipment-weighted adoption rate of only 14.9%. Combination 2 has an adoption rate
106
Implications
only
slightly
higher-22.8%.
combinations,
Combination
but still only
The labour-enhancing 1993 as well frequently
accounts
were
These technologies
Furthermore,
for humnn
that
adoption
the most commonly also experienced
firms
strategies:
et al
/ Johnson
rate of the three
of shipments.
these labour-enhancing
as the technologies
resource
3 has the highest
for 23.3%
technologies
as in 1989.
over the period.
of innovation
were
used technologies
the greatest
technologies
planning
to adopt
growth
were
cited
(over
the
in
in use
the most 1993-95
period). The pattern turning
of technology
towards
success
of firms,
delivery
and
opportunities
enabling
still
them
achieving
solving
suggests that manufacturing Information
to tailor
their
economies
of
to workers-providing
greater ease. Workers problem
adoption
‘soft manufacturing’.
them with
is becoming products sale.
and improving
the value
while
These
increasingly
are able to pass off repetitive
to the
the speed
technologies more
products
critical
improving
or dangerous
of their
firms are increasingly
ever more
bring
information,
of
more
with
ever
tasks and concentrate
on
and services.
Performance indicators The
data
from
manufacturing conferred tracked
survey
by the
of some 4200
in the universe,
being
and therefore
technology In order
is treated represents
the
adopting
advanced advantages
technologies
are
users, the 1989 technology
survey
is
taken from the Census of Manufacturers.
as a study group
for purposes
for some 10% of the population only
whether
understand
technologies.
of technology
data back to 1980,
illustrate to
establishments
not using advanced
plants
means examining
used.
technologies,
the progress
panel
The study group accounts study group
manufacturing
are
to those
to examine
to longitudinal
This panel
of
use of these
and compared
In order linked
the
technologies
primarily
the experience
of analysis.
but 50% of total shipments
large plants.
Treating
of this large group
the panel
as a
of observations-a
so ,
1
Note: The 1993 numbers have been modified so that their calculation
Figure 1. Growth in technology
is comparable
with those Worn tne
1 YBY
SUWSY.
use, 1989-93.
107
Implications
of innovation
group which
covers the large plant population
the experience
of this group
The study group answers
cannot
is divided
to the 1989 survey.
non-users in the sample addition,
the income
into technology
The market
of production share
technology
because
more establishments share
manufacturing
and
have become
technologies
in either
the quantity
share and relative changes complexity
Technology
(3.2%), While
in relative
who
with the new technology,
Changes
labour,
do not.
brought
Fabrication
in relative
increases
groups
wages
and
the advances
have gained
productivity, of
advanced
productivity
can
by the adoption
of
in market
may be the result of or an increase
market
in the
share at the expense
is followed
of technology
growth
group
by manufacturing design
and integration
users in all functional through
technologies
a blending
and
rate of users
has a growth
information engineering
groups
non-users
of the labour-enhancing
I
Figure 2. Growth rate (%) of market share, 1982-89.
rate
(2.2%),
(0.2%).
14
and
systems
and control over
of
have
for users of fabrication
functional
(2.9%),
systems (2.0%),
the greatest gains are realized
It is highest
individual
communications
manufacturing
16 ,
108
has and
or from increases
about
in productivity,
advanced
positive.
No other
and assembly
handling
use
processes.
but is everywhere (10.0%).
effect
labour
for
non-users,
labour
the
The size of the market-share
materials
substantial,
than
those
inspection
automated
technology
using
technologies
half as large.
which rapidly
2). Establishments
across groups,
assembly
to
in relative
In
are calculated
share are the net result of changes
productivity.
or production
users and
years back to 1980.
per worker
demonstrate
of capital-per-worker
in employment
users in all functional
(figure
supplanting
varies
associated
for skilled
of products
non-users been
labour
in the demand
rates
on the basis of their
more
on the input mix. Changes
or quality
Changes
extent grow
users. Changes
wage
stem from higher skill requirements new technology.
the users
Consequently,
shares for technology
and productivity
reveal
relative
users and non-users
for each of the intervening
workers
increased-both
fashion.
to the population.
and employment
are calculated
because
in a comprehensive
be extrapolated
each of these two groups. Changes in market
employment
et al
for human resource strategies: /Johnson
are and
Implications
oi’ innovation
for human resource strategies: J Johnson et al
1.9
I
17 1.6 b: y
1.5
Qc
14
g
13
B a
1.2
6 .g
1.1
z
1 0.9 0.9
Figure 3. Relative productivity,1981-89
labour-saving market-share
technologies.
All three combinations
growth than any of the functional
users in combination
1 grew at a rate of 10.7%
shows a slightly
higher growth rate of 12.3%.
for combination
3.
Technology
non-users
over the ten-year period. Combination
2
occurs
users have not only gained market share through offering higher-quality
output per production The
by higher rates of
The highest rate of growth (15.3%)
products, they have also become increasingly 1989.
are characterized
groups. The market share of technology
labour
worker
more efficient.
for technology
productivity
of technology
Figure 3 depicts the ratio of
users relative to non-users users
is generally
for 1981
and
greater than that of
in both 1981 and 1989.
All the labour-enhancing advantage over non-users in all functional productivity
technology
categories,
except design and engineering,
relative to their non-using
The productivity
users enjoyed a significant
throughout the entire period. Furthermore,
performance
counterparts
attained gains in labour
over the period under study.
of users of labour-saving
Firms using automated materials-handling
labour productivity the technology users
technologies
is less even.
systems attained greater productivity
levels and
gains than firms not using these technologies. However, firms using fabrication and assembly technologies started the period behind other firms, and finished only about even. Part of this can be explained by the fact that firms propelling the rapid technology adoption of fabrication and assembly technologies have neither the flexibility,
in the 1980s
nor the foresight
neglected to recognize that robots
necessary for dealing with anomalies
in the
production process. Bylinsky, in his study of technologically advanced manufacturers, notes that ‘years of costly efforts to install flexible manufacturing systems taught them a bitter lesson . Robots have been relegated to simple jobs at which they excel, like spot-welding;
humans,
with
their
unmatched
dexterity
assembly jobs where the robots floundered’.4 Firms combining technologies across functional productivity
advantages. Adopting a comprehensive
and judgment,
groups realized
are back in
significant
strategy is particularly
labour
important for
Implications
of innovation
for human resource strategies: Jlohnson
et al
users of fabrication and assembly technologies. Used alone, fabrication and assembly technologies are not associated with a productivity advantage; but combining them with automatic control devices and integration technologies (combination 3) results in a significant labour productivity advantage. Establishments whose technology use is characterized by combination 3 have the highest relative productivity growth rate (21%). They also achieve the highest market-share growth rate of any technology group. This suggests that the greatest benefits, in terms of market share and productivity growth, accrue to establishments managing to solve the puzzle of exploiting the skills of workers through the use of labour-enhancing technologies, while freeing up valuable human resources from repetitive tasks. On average, technology-using establishments have gained market share at the expense of non-users, and have a significant labour productivity advantage. How this affects their relative employment share is not immediately clear. Relative labour productivity and market share have offsetting effects on the relative employment share. Ceteris paribus, increases in market share will increase output, the demand for workers, and employment; whereas, increases in labour productivity will decrease the demand for workers and employment at the current level of output. The net impact of these two forces is revealed by changes in the share of production workers employed by technology users relative to non-users. The percentage point change in the employment and market share of technology users over the period 1982-89 is presented in Figure 4. On average, the change in employment share is lower than the change in market share because of gains in relative labour productivity.5 The effects of technology adoption on the relative wage rates paid by technology-using establishments is presented in Figure 5. The ratio of the average wage of workers in technology-using establishments exceeds that of workers in non-using establishments in most categories, in both 1981 and 1989. Furthermore, the disparity in wages grew over the period.
Figure 4. Changes
110
(percentage
point) in market share and employment
share, 1982-89.
Implications
of innovation
for human
resource
strategies:
I Johnson
et A
I
0.9
Figure 5. Relative wages, 1981-89.
The difference in the differences both
at
the
in wages paid by technology in wages are particularly
functional
group
level
technologies.
As the capabilities
technologies,
workers
do particularly
in firms
utilizing
Workers
their
are replaced
efficiency.
and
of workers
non-using
wages.
It is important
growth
in the differences
again,
combination
counterparts. with
other
through
users,
labour-saving
labour-enhancing
however,
become that
also garner
higher
wages
and
In firms using these technologies,
machines more
neither
for users of labour-saving
for users of labour-enhancing
technology
with
are augmented technologies
as workers
to note,
users and the growth
well.
by or supplemented
Once
in
labour-saving
larger gains in wages over their workers
and non-technology
strong for labour-enhancing
for the purpose efficient,
they
the difference
technologies
of improving receive
in levels,
higher nor the
is as high as that observed
technologies.
Technology adoption and training The preceding discussion demonstrated productivity and, consequently, wage affects change.
the
nature
Workers
of work. require
As firms a different
that technology and job growth. adopt
new
set of
use affects market share, labour However, technology use also
technologies,
skills
in order
their to
skill
work
requirements with
the
new
technologies. Numerous
authors
have debated
whether
the introduction
of new technologies
raises
or lowers the skills required from workers. New information on this is available from Statistics Canada’s Survey of Innovation and Technology.‘j Firms using technologies from each of the functional groups-fabrication and assembly, automated materials handling, design and introduction
engineering, and inspection and communications-were asked of that technology resulted in increased or reduced skill requirements
I). The results were
unambiguous:
the introduction
of the technology
increased
if the (Table the skill
111
Implications
for human resource strategies: J Johnson et al
of innovation
requirements reducing
in the majority
them
in only
very
of cases (ranging limited
from 47.2%
instances
(5.0%
to 58.8%
to 15.8%
of the time),
while
of the time).
A model of training The
need
for
programmes. workers
more The
with general
technology
adoption
Multivariate
analysis
activity,
skilled
latter
while
addition
can
be met
when
skill
skills are not adequate. and the incidence allows
controlling
to variables categories,
are also included.
other
of training,
hiring
variables
that might
the relationship (probit)
of certain
corporation,
of the plant,
growth
of technologies
analysis
in
each of the
or not a firm engages
the diversification, over
is used.
Therefore,
from
are: the innovativeness
in output
that
between
factors on a particular
also affect whether
These other variables
or training
are so firm-specific
multivariate
the influence
the use or non-use
and the parent
or domestic)
external
for other factors that might also affect that activity.
representing
in training
the size of the plant
through
requirements
In order to examine
one to examine
functional
(foreign
workers
are required
of the industry,
age, and ownership
the 198Os, and the region
of
operation. The results of the multivariate important
determinant
technologies-fabrication and engineering, Other innovative
characteristics
and independent,
will
train
automated
more
of the firm
are more
likely
or part of a very
likely were
or not.
materials
and communications,
and control-are
industries
suggest that the use of technology
the firm
and assembly,
inspection
and integration
analysis
of whether
Nevertheless, firms offering
the technology
of the relationship
also
related
to offer training.
training
variables
is graphed
to training.
design systems,
Firms operating that are either although
not and
In order
use and training,
were
and non-using more likely
in
small
that are more mature,
are the most important.
technology
technologies
of the
systems,
that are somewhat,
for the technology-using
Firms using each of the advanced
each
information
Establishments
large organization,
between
handling
manufacturing
is the most
using
to train.
highly, diversified, that have enjoyed moderate to rapid growth, that are foreign-owned, are the most likely to train. the strength
Firms
to illustrate
the percentage
of
groups (Figure 6).
to be training
than firms
not using them.
Implications of innovation for enhancing the skills of workers through training The results of the previous and
training.
However,
section all
forms
illustrate of
the connection
between
technological
activity
innovation,
not just the adoption of advanced technologies, require that employees perform new functions, and thus can be expected to stimulate training. Furthermore, innovation is critical in all sectors, not just manufacturing.
TABLE 1. IMPACT OF TECHNOLOGY
Impact on skill requirements
Fabrication assembly
Increased Reduced
56.0
112
15.8
and
ADOPTION
Automated handling 58.8
5.0
ON SKILL REQUIREMENTS
materials
(%)
Design and engineering
Inspection and communications
54.2
47.2
8.2
5.6
Implications
The relationship
between training
of innovation
for human
resource
strategies:
and the other strategies and activities
demonstrated by the responses to the Growing Small and Medium-sized (GSME),
which
characteristics
provides
information
both the goods-producing
rt al
of the firm
is
Enterprise Survey
on a broader range of strategies,
of firms than the Survey of Manufacturing
/Johnson
Technology,
activities
and
and which covers
and service sectors.’
Training in the strategic plan of the firm Most
knowledge
‘tacit’-that
that makes the difference
between success and failure
is, it is not subject to ready codification.
for a firm
is
If it were, blueprints for success could
be prepared and firms that were laggards could quickly emulate the most successful.
Tacit
knowledge is firm-specific
in the
and accumulates over time. It resides in the organization,
collective knowledge possessed by the workforce of a firm. Tacit knowledge in its various forms provides the basis for the innovation and its productive capabilities. the repository
Training
system of a firm,
its organizational
creates the human skills
in which the tacit knowledge of an organization
takes many forms.
structure,
that, taken together, are resides.
That knowledge
Most of it is learned on the job in both a structured and unstructured
format. Machinery
and equipment are the dominant form of capital in manufacturing
Innovation typically technology-based. know-how
Attention
is essential
to human
resources
here
because
technical
here is complementary
to technological
innovation.
such as in the service sector, knowledge itself is the product and human
capital is the dominant form of capital. A business knowledge
is important
for both the production process and the innovation system of a firm.
Human capital development Elsewhere,
firms.
centres on improving the machinery and equipment in the firm and is
of a specialist.
Success
service in many cases is simply
in these industries
embody the amount and type of knowledge
required
depends on a firm’s by a client.
ability
Ihe to
Innovation
involves
advancing the knowledge of, and the application of that knowledge, by workers.
Product
Figure 6. The differencein rate of training betweentechnology-usingand non-using firms.
Implications
of innovation
quality and human-capital same. Training
involves
package knowledge formation
in the
of products in these industries
form
for
clients.
Consequently,
will
In these situations,
In some manufacturing firms
strategy, rather than a complement. form an important
Since the nature of innovation traditional
services
industries
like
accommodation. utilities,
and training
Similarly,
part of the innovation
strategy. A firm-level
is
services
hypothesized
technology/input-based characteristics
services,
services, depend
innovation,
quality,
such
wholesale
as size,
on
services
education,
sector consists
to
of the firm,
ratios, retention
The traditional
personal
real estate, transportation
Training
to be emphasized.
depends on the product market,
services.
outlets,
The dynamic
be an
in some service
the relationship
is analysed separately in three sectors--manufacturing,
and dynamic
retail
capital
human resource strategies will
analysis allows differences in emphasis across both firms and industries between innovation
how to
human
are one and the same in these industries.
there are exceptions to these generalizations.
technologies
are one and the
enhancement and problem solving-learning
correct
be more important.
will
element of the innovation firms,
embodiment
both skill
and innovation
Naturally, service
et al
for human resource strategies: J Johnson
services,
and
of finance, communication
and
trade and business
three
areas
and human region,
sector encompasses
health
of
resources,
occupational
rates and changes in labour productivity.
services.
strategic
emphasis-
as well
structure,
as other investment
The variables representing the
strategic emphases require some explanation. Some 20 subjective and objective measures of innovative activity are available from the GSME
survey.
These
each index representing
measures are combined into four indexes of innovation, a particular
innovation
prototype.’
‘grouping’ similar variables by attaching like weights to like variables. The first index is the General Innovator. It represents the that emphasize innovation-technological capability as a factor R&D-innovation
capability,
new technologies, materials,
R&D
spending relative to competitors,
the use of others’ technology,
just-in-time
inventory
control,
from a number of sources-marketing, The
second
index
is
the
with
The indexes are created by many strategies behind growth,
the development of
reducing energy costs, the use of new
process control,
and obtaining innovative ideas
management, the R&D unit, and patents.
Passive
Adapter.
This
component
primarily
weights
innovation that comes from management, marketing, Canadian patents, foreign patents and government contracts. However, most of the R&D activity, technological, input and management strategies innovation
receive negative weights.
like patents suggests that the firms
The
emphasis
on outside sources of
represented by this component passively
adapt ideas from others. The third index, the R&D-driven
Innovator,
consists
almost entirely
of R&D-based
factors. More specifically, investment in R&D for product and process innovation, the importance of R&D for growth, a firm’s competitive position with regards to R&D spending, the R&D unit as a source of innovation, heavily in this index. The fourth
index, the Outward-oriented
variables as the third component
and developing new technology figure
R&D
but also includes
Innovator,
consists
of the same R&D
dependence on the marketing
unit,
management, customers and competitors as sources of innovation. It represents situations where innovation in technology, inputs and organization receive negative weights. Innovation is limited here to areas that involve the ingestion of ideas from outsiders. The decision to train is also hypothesized to depend on the value that the firm
114
Implications
attributes skills
to quality.
that
generally training. rating
permit
If firms treat investment high
quality
of their
product
quality,
The second
total
management
quality While
reflect
innovation
from
to
variables to these
resource
indexes
a progressive represents
to their given
to
improving
quality,
this
previously
defined.
The innovation
R&D
on
products
any additional
strategies-by needs.
is that
their
firms
human
that
which
resources,
adopt will
strategy.
and
correlated
with
to differences quality
service
or offering
should
in
in ways
not
greater
have an effect on
variables. a human-capital-based
be more
likely
The first index
The
of
innovation
to train.
represents
Comprehensive
Three
human
a firm practising
Human-Resource
Firm
management and employee compensalion : ‘actor in growth, and that possess a programmes, that value labour skills 2; b;i ; i r competitors. The second index, the superior skill set and labour climate I E E 1 i ve compensation packages highly but Wage Innovator, represents firms that ii4 iii ; do not rate the labour Intensive
have
aspect
processes,
explanation
improving
from the survey.
human-resource
and
are highly
In this case, quality
from the effect of the innovation
are generated
firms
on
firms may also strive to improve
innovation
hypothesis
and value
relative
is the importance
that these variables
not contribute
to customer
that is separate
strategy,
quality
will also emphasize The first is the firm’s
of products
of quality
to develop
that emphasize
programmes are utilized.
variables
technologies,
However,
in responding
The third
those
et al
/ lohnson
as an opportunity
then
and range
centres
To the extent
will
of training.
related
flexibility
often
the innovation
attention
quality
strategies:
practices.
in the use of inputs.
the incidence
service
resource
capital
of the importance
strategy
is distinct
variables
training
in human to be met,
customer
measure
innovation
innovation
directly
standards
for human
and adherence to quality management Two measures of the importance of quality
competitors.
quality,
of innovation
ipi iid j firms that pl “FL E8,,i,,
contributing
to growth,
the firm, firm’s
by the technology/input-based there
may be a separate,
emphasis
on human
R&D or technology resource
not embodied
Empirical Training
variable
is included
in the innovation
towards
is endogenously
strategies
its innovation
Thus,
like
a dimension
skills
packages,
adopted
As was previously
in the innovation
industries. to capture
resources
and quality
capture
the Skills
of labour
compensation
human
component.
may better
components
on the importance
innovative
innovation
that are emphasized
in the case of human-capital-intensive human
offer
exogenous
resources
variables
:,,lue
but neither
nor boast a superior labour climate. Although part of the attitude expressed determined
5 ghly. The third component,
skills and clima
Firm, represents
as a factor
innovative
strategy
variables,
the quality
of innovation
by
argued,
a
than the
particularly variables,
strategy
the that is
used here.
results is related
to innovation,
but the nature
of the relationship
between
training
and
innovation varies across sectors. The variables that are statistically significant in explaining the incidence of training (using probit analysis) in each of the three sectors are listed in Table 2. In manufacturing, amount
of capital
it is technology/input-based
per worker,
strategies are not statistically training. This does not imply
that stimulate
innovation, training.
as well
The quality
as increases
and human
in the
resource
significant in determining whether or not a firm engages in that the incidence of training is not strongly correlated with
115
implications
emphasis
of innovation
on quality
lack of statistical other
emphases,
resource
strategy.
and human
significance
strategic
human
for human resource strategies: /Johnson
strategy. The human strategy
in the service
human
resources
strongly,
it also pursues
and human
resource
it is strongly
related.
between
firm
actively
training
pursues
quality
technology/input-based
strategies
What the and these
and
innovation
are complements
to the innovation
are part of, rather than components
to, the innovation
In the traditional
is the dominant
but not independently,
indeed
of the correlation
an active
resource
strategies
firms.
that
strategies,
in light
if a manufacturing
is that
strategies,
The quality
resource
means,
et al
service
stimulus
related
sector,
it is attention
to training.
to training;
to quality
Technological
technological
and
emphasis
emphasis
supports
is the
quality and human resource strategy. In the dynamic services sector, each of the forms of innovation, R&D/technology-based, quality-based and human resource-based elements have separate
impacts.
The multivariate
analysis
each of the sectors. results apply
While
to the incidence
innovation
in firms’ training
of training
among
In order ranked
(figure training.
innovative
that innovation
formal
and non-innovative the connection
innovative
and
The innovativeness
7). Between In contrast,
TABLE 2. FACTORS
74%
related
those
of the firm
firms
and
77%
in the
to training
INFLUENCING
THE INCIDENCE
Traditional
index,
The importance
bottom
and training,
half
related
firms
firms
are deemed
to whether
offer
either
are
to be less
or not it trains
formal
firms offer either
OF TRAINING
or informal
form of training.
AT THE SECTORAL Dynamic
PRINCIPAL
of
in the incidence
and those in the top half are
services
INNOVATION
in
similar
in each of the three sectors. innovation
is strongly
of innovative
training.
by the differences
between
less than 50% of non-innovative
Manufacturing
is strongly
and informal
is best illustrated
to their score on the first innovation
to be more
innovative.
of both
decisions
to demonstrate
according
deemed
demonstrates
Tab/e 2 only reports the results for any type of training,
LEVEL
services
COMPONENTS
Outward-oriented R&D innovator General innovator
R&D-driven innovator General innovator Passive innovator QUALITY VARIABLE Quality
Total quality management practices
HUMAN RESOURCE COMPONENTS Comprehensive
PRINCIPAL
human resource strategy
Skill intensive
OTHER FACTORS
Managers as a % of all employees
Number of employees
Number of employees
Quebec (negative effect)
Quebec (negative effect)
Quebec (negative effect)
Growth in the capital/labour ratio Ratio of investment in market development to labour
Retention rate of employees
116
Implications
of innovation
for human resource strategies: I Johnson et al
60.00
F ._ .E
e _ F
=
70.00 .
Non-innovative
60.00 50.00
E
40.00
‘E’ .b c
30.00
6
20.00
E ::
10.00
k
0.00
Manufacturing
Figure 7. Incidence of training across firm types.
Concluding remarks The globalization environment success.
A key
Information among
of markets
in which
rapid
element
of
technologies
technological
innovation
have
advancements
terms of both products is the
revolutionized
adoption
of
information
have
created
and processes-is information
flow
both
an
critical
to
technologies. within
firms
and
firms.
Technology technology labour
adoption
adoption
is closely
and
productivity
wages-is
superior
advantages,
unambiguous.
economy’. detailed
and
innovation-in
The
Labour-enhancing information
The benefits development
learning.
of new
factor explaining
basis, allowing
the repetitive
on improving
of successful
and organizational
provide
changing consumer tastes, Labour-saving technologies
by performing
them to concentrate
to success.
skills
which
adoption
among
relevant, products
tasks of workers
and enabling on individual
requires
adoption
simultaneous
is the most important
Use of eat h of the labour-enhancing
the adoption
of certain
manufacturing
sector.
Furthermore, of
‘knowledge
to adapt
have put a premium
technologies stimulates greater training. however, is related to a broader spectrum nature
new
accurate,
continually
technologies
labour-saving Training,
technologies.
the
with
quality.
Technology
in training.
between
while improving the efficacy of the complement the labour-enhancing
of technology
workers.
firms engage
typifies
them
and service of new
connection
market share, enhancing share, and paying better
workers
and dangerous
product
The adoption
The
The strong
era of soft manufacturing technologies
on an ongoing
and services to ever production process. technologies
related
performance-improving increasing employment
innovation
the
ot innovative r-elationship
varie5
across
activities holds firm
and
than just
outside
type\.
the
In
the
manufacturing sector, innovation is technology-based. However, in the services sectors, knowledge is itself the product and, consequently, innovation primarily takes the form ot advances in knowledge and the application of that knowledge by workers. The third section dynamic
of the article service
the various
examines
and traditional
elements
the nature service
of innovation
of innovation
In each
sectors and the relationship
are then examined.
Training
of the manufacturing, between is found
training
anti
to be stronglv
Implications
related
of innovation
to the nature
technology-based
services
human-resource-based Firms
incorporate
that
higher-quality
and
depressing
determining
programmes receptive
to training
technology, policies
which
technology train.
human
consideration coordinated
are
to
quality
to to
strategies;
and, in
quality-based
and
to quality-are just
be those
between
that recognizes
levels
them,
greater
levels offset
of the
environment
policies.
Firms that will
where
expertise
already
exist.
Training be the most
in innovation, Consequently,
to training-innovation,
to be effective is likely
to
results in
innovation,
resource
technology
the inherent
are
from
complements
also likely
innovation,
in order
innovation
for workers.
human
the
in innovative
workers
of the firm and industry
management
at stimulating on
skill
useful for all firms.
going
and
of the connections approach
and
to be equally
policies
focusing
of their
resulting
on the demand
technology
resources
and attention
higher
sales,
point to the importance
are directed
However,
the
is related it is related
for the workforce
in the skills
the
Greater
productivity
innovation,
do not appear
to
bodes well
invest
with
wages.
effects of higher
innovation
related
into the firm and offer new products.
The results of this article in
must
Commensurate
better
is
training sector
strategies.
are innovative
jobs.
productivity
sector, services
resource-based
training
of innovation
new technologies
et al
in the dynamic
and human
sector,
importance
J Johnson
In the manufacturing
strategies;
innovation
The increasing
strategies:
of innovation.
quality-based
traditional
firms.
resource
innovation
technology-based, the
for human
in encouraging
or training
policy,
to have a lesser impact
complementarities
firms to without than a
of all to the firm.
Notes and references 1. 2. 3.
4. 5.
6.
7.
118
The Economist, ‘Technology and unemployment’, 11-l 7 February 1995, page 21. G Bylinsky, ‘The digital factory’, fortune, 14 November 1994. The Survey of Manufacturing Technology was conducted by Statistics Canada in March 1989. The survey asked establishments in the manufacturing sector to indicdte their use, planned use, or non-use of 22 separate advanced technologies. There are 4200 establishments in the sample, of which 3952, or 94%, responded. Firms’ responses were linked to longitudinal panel data back to 1980, taken from the Census of Manufacturers. The longitudinal panel data includes sales of manufactured goods, number of production workers, and the total wage bill of production workers. For a more in-depth exposition of this analysis, refer to J R Baldwin and B Diverty, ‘Technology use and industrial transformation: empirical perspectives’, in Tom Courchene (editor), Be// Canada Papers 111: Technology, Information and Public Policy (Kingston, John Deutsch Institute for the Study of Economic Policy, Queen’s University, 1995). Bylinsky, op tit, reference 2, page 93. These results say nothing about the effects of relative market share and productivity on overall levels of employment. Employment rates cannot be inferred from the rate of change of employment share, since even where the share of employment is decreasing over time, overall employment may be increasing in an industry or economy which is growing. The Innovation and Technology Survey was conducted in 1993 using manufacturing firms. Three types of units were sampled: large plants whose head office is located elsewhere, the corresponding head offices of the plants, and small firms that have both their management and plant located in the same spot. There were 1595 head offices, 1954 large plants and 2180 small firms for a total of 5729 units sampled. The response rate, for the survey as a whole, was 85.5% and ranged from 92.9% in small firms down to 77.7% in the large plants. The same technology use questions from the 1989 Survey of Manufacturing Technology were used in this survey. The GSME survey was conducted in 1992, using firms that grew over the last half of the 1980s. Small and medium-sized firms were defined as having less than 500 employees and less than $100 million in assets in 1984. The sample was drawn from all major sectors, with the exception of public administration. The survey of 2157 firms had a response rate of 69%. The CSME survey was destined to give a broad description of activities, characteristics and strategies followed by a set of generally successful small and medium-sized firms. For a detailed analysis of the survey, please refer to J R Baldwin, W Le C Chandler and T Papailiadis, Strategies for Success, Catalogue No 61-523E (Ottawa, Statistics Canada, 1994). For a more detailed analysis of the relation between innovation and training, please see notes 9, 10 and 11,
Implications
8.
9. 10. 11.
of innovation
for human
resource
strategies:
I Johnson
et al
It has been suggested that when various subjective responses are centred on a particular theme, those responses, when combined using principal component analysis, can reasonably be expected to represent that theme. Principal component analysis creates new variables as weighted averages of the old. These new variables are similar to indexes, like the Consumer Price Index ((‘PI). The CPI measured general price changes by weighting the price changes of the individual commodities. Innovation principal components are indexes of innovation. They combine responses to individual survey questions. A number oi components, or indexes, are calculated for the set of innovation variables. The alternate weighting schemes that are applied to the individual innovation questions-the size and sign attached to each of the variables-in each of the components, identifies different prototypes of the theme, in this case innovation. See A Anderson, A Basilevsky and D Hum, ‘Measurement: theory and techniques’, in P Rossi, JWright and A Anderson (editors), Handbook of Survey Research (New York, A(-ademic Press, 198.3). j R Baldwin and Joanne Johnson, ‘Human capital development and innovation: the case of training in small and medium-sized enterprises’, Research Paper Series No 74 (Ottawa, Statistics Canada, 1 YY5a). J R Baldwin and JJohnson ‘Business strategies in innovative and non-rnnovatrve firms in Canada’, Research Paper Series No 73 (Ottawa, Statistics Canada, 1995b). J R Baldwin, B Diverty and J Johnson, ‘Success, innovation, technology, and human resource strategies’ (Ottawa, Statistics Canada). Prepared for a conference on ‘The Effects of Technology and Innovation on Firm Performance and Employment’, Washington, 1-L May 1995.
11Y