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R E S E A R C H A R T I C L E
India’s Information Technology industry: prospects for growth and role in structural transformation
Gaurav Gupta . Amit Basole
Accepted: 26 November 2020 / Published online: 19 January 2021
� Indian Institute of Management Calcutta 2021
Abstract The idea that service-sector industries,
rather than manufacturing, can drive growth and
structural change has caught the imagination of
several scholars and policy-makers. For India, the
Information Technology (IT) industry is often cited as
an example of one such industry. However, empirical
evidence for such claims is still weak. This article
evaluates the Indian IT industry’s potential for growth.
Most studies on the subject focus on the narrower
segment of IT-Services in India while we take a
holistic view and consider the potential of both
software product and services, IT hardware, out-
sourced/offshored business processes, and activities
involved in creation of intellectual property. We
evaluate the present position and future prospects of
the industry including India’s position in the technol-
ogy value chain as well as future opportunities for the
industry in the context of relocation of global manu-
facturing value chains and growth of the domestic
market. We also discuss the likely impact of technol-
ogy on jobs in the overall economy, direct and indirect
job creation potential of the IT-BPM (Business
Process Management) sector and the spill-over effects
of technology as an enabler of new business models.
Finally, we draw some lessons for effective industrial
policy.
Keywords Exports � IT-BPM value chain � Job creation � Services-led growth
JEL Classification L8 � O4
Introduction
The Indian economy is at a critical stage in its process
of structural transformation. The share of value-added
as well as employment in agriculture continues to fall
along expected lines, but the manufacturing sector has
failed to expand correspondingly. The sector’s contri-
bution to value-added remains low at around 15%, and
its share of employment too has been more or less
stagnant since the 1980s at less than 15% (State of
Working India 2018). Further, there is evidence to
suggest that the Indian experience is part of a global
trend of ‘premature deindustrialization’ (Rodrik
2015), wherein peak share of manufacturing in
value-added as well as in employment is being reached
at a much lower level of per capita income than in the
past.
Earlier phases of structural transformation in
Western Europe, as well as the late industrialisers in
East Asia, relied primarily on labor-intensive manu-
facturing to move a large agricultural workforce into
more productive non-farm activities. Industrialization
was thus seen to be the prime mover of structural
change (Storm 2015). There were two important
G. Gupta (&) � A. Basole Bengaluru, India
e-mail: [email protected]
123
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https://doi.org/10.1007/s40622-020-00269-z
aspects to this: first, the property of manufacturing to
display ‘unconditional convergence’ to global stan-
dards, and second its ability to create employment in
relatively large numbers for workers without high
levels of formal education. This neatly met two key
needs: productivity growth and employment that
matched the profile of the labor force (Rodrik 2011).
Today’s structural transformers face two major
constraints: one is that they have to compete in a
relatively more open economy with several more
advanced industrialized countries, and two, manufac-
turing is no longer as employment intensive, partic-
ularly with respect to relatively unskilled labor and
therefore further away from the comparative advan-
tage of these countries. Both these may contribute to a
failure of manufacturing to lead the process of
structural change by drawing labor away from low-
productivity sectors.
Several writers have advanced the proposition that
countries like India may be experiencing an alternative
process of structural change wherein the service sector
leads economic growth as well as structural transfor-
mation (Economic Survey of India 2014–2015; Ghani
and O’Connell 2014; Amirapu and Subramanian
2015; Dasgupta and Singh 2005). The question that
arises here is, do service industries possess the
attributes necessary to drive structural change, the
way manufacturing industries have done in the past?
In this respect, Amirapu and Subramanian (2015) have
proposed that, rather than manufacturing or services,
the relevant dimensions are ability to achieve high
levels and growth rates of productivity, domestic as
well as international convergence, expansion of a
sector in its use of inputs, comparative advantage and
exportability.
It is in this context we evaluate the potential of a key
Indian service sector industry, Information Technol-
ogy and Business Process Management (hereafter IT-
BPM). Surprisingly, given the industry’s high profile
and public visibility, it has not attracted much
scholarship, particularly since the early 2000s (e.g.,
Kambhampati 2002; Kaushik and Singh 2004; Singh
2005). The present paper seeks to fill this gap.
Before proceeding further, we take a moment to
define the industry. The IT-BPM industry is made up
of the following segments: IT services, Business
Process Management (BPM), Packaged software
products, Engineering Research and Development
(ER&D) and Hardware. Packaged software products
and ER&D includes all activities that relate to
generation of Intellectual Property (IP). The IT
services segment includes Custom Application Devel-
opment Management (CADM), Infrastructure Ser-
vices Outsourcing (ISO), Testing, Support and
Training, System Integration, IT Consulting and other
related activities. Hardware includes all the business
and personal user equipment including servers, net-
work equipment, desktop and laptop computers, etc.
The BPM market includes all activities in a company’s
value chain that are standardized, usually not core and
are subject to commercial benefit from remote deliv-
ery outside a firm’s physical or organizational bound-
aries. This includes low-skill/manual activities: voice
and non-voice (transaction fulfilment), as well as high-
skill/cognitive activities: knowledge intensive tasks
such as researching on stocks and bonds. 1
Between FY09 and FY16, IT-BPM grew faster than
overall GDP with the result that its contribution to
GDP increased from 6 to 9%. Total IT-BPM exports
grew 152% from USD 50bn to USD 126bn between
FY10 and FY18. Notwithstanding the relatively low
levels of employment in this industry (it employs
around 4 million workers or less than one percent of
the workforce) and India’s hitherto low-end position in
the global value chain, a policy focus on the IT-BPM
industry can have spill-over effects on other services
subsectors such as Tourism, Retail, Real Estate,
Financial Services as well as on driving competitive-
ness of local Industry and Agriculture.
Two questions are relevant here. First, what is the
potential of the IT-BPM industry for expansion? And
can this expansion also result in a wider transforma-
tion of the Indian economy, reducing the share of
workers engaged in agriculture and other informal
activities?
In this article our focus is largely on the first
question. We analyze the past performance and future
1 Voice refers to all conversational interactions between a
company and its customers, e.g., a bank’s customer seeking
clarification on charges levied on his/her credit card- queries that
are standard and usually have a scripted solution from the bank.
Non-voice work refers to processing of customer transactions,
e.g., processing related to loans disbursed by banks. Other non-
core and standard activities amenable for execution outside an
organzation’s physical boundaries include payroll processing,
pre-recruitment employee background checks, operational
finance, etc. The BPM segment also includes jobs which are
knowledge intensive and often need professional qualifications
such as in Accounting and Financial Analysis.
342 Decision (December 2020) 47(4):341–361
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potential of India’s IT-BPM industry and show that, to
an extent, it can make up for the absence of a strong
manufacturing sector. Contribution to income, exports
and employment by IT-BPM can increase further as
general-purpose-technologies such as industrial
automation and Internet-of-Things penetrate deeper
and as governments, including that of India, spend
more on IT-led delivery of public services. We also
argue continued policy support is important for the
industry to remain a driver of structural change and
economic growth in India.
This article is organized as follows. Section ‘‘Man-
ufacturing and services: an increasingly weak distinc-
tion?’’ briefly reviews the relevant literature on
structural change and economic growth and makes a
case for doing away with the traditional policy choice
of manufacturing versus services. In ‘‘IT-BPM: role of
policy and importance to the Indian economy’’
section, we discuss the importance of India’s IT-
BPM industry and the role of policy. Section ‘‘India in
the global IT-BPM industry and the way forward’’
evaluates the present position and future prospects of
the industry including India’s position in the technol-
ogy value chain as well as future opportunities for the
industry in the context of relocation of global manu-
facturing value chains and growth of the domestic
market. In ‘‘Potential for job creation’’ section, we
discuss the likely impact of technology on jobs in the
overall economy, direct and indirect job creation
potential of the IT-BPM sector and the spill-over
effects of technology as an enabler of new business
models. Section ‘‘Key takeaways for policymakers’’
draws on lessons from relevant literature for effective
industrial policy and ‘‘Conclusion’’ section concludes.
Manufacturing and services: an increasingly weak
distinction?
India’s rapid growth in the last two decades has come
from an expanding services sector rather than from
manufacturing. Workers leaving agriculture have been
absorbed in low-productivity services such as con-
struction and retail and not in manufacturing, espe-
cially of the labor-intensive variety (State of Working
India 2018). Manufacturing’s share in GDP as well as
in employment has remained below 15% since
independence.
The Indian economy can be viewed as having a
traditional sector including much of agriculture,
unregistered or unorganized manufacturing, construc-
tion, retail, and hotels and restaurants. These parts of
the economy have low productivity, their output is
usually non-tradable, and are characterized by surplus
labor in the Lewisian sense (Lewis 1954). The modern
sector includes registered or organized manufacturing
(relatively more skill and capital-intensive compared
to unregistered manufacturing) and highly productive
services such as IT-BPM, business services, real estate
and financial services and insurance. This modern
sector has high levels of productivity, output is usually
tradable, employs skilled labor and some key subsec-
tors such as skill-intensive manufacturing and IT-
BPM are constrained by inadequate supply of labor.
Economic growth in such a dual economy can be
thought of as two distinct but inter-related processes
(McMillan et al. 2016): growth due to structural
change (Lewis process) and growth due to accumula-
tion of physical and human capital (Solow process).
Rapid industrialization or movement of resources
to high productivity sectors alone without focus on
fundamentals will fuel growth in the short term and
then plateau as has been the case with India. On the
other hand, investment in fundamentals will help in
the long-run but investment only in fundamentals
ignoring structural change will give only modest
growth. South Korea, Taiwan and Hong Kong are
examples of countries that have had sustained periods
of prosperity owing to their focus on both (McMillan
et al. 2016). In India’s case, Ahsan and Mitra (2016),
using data from 1960 to 2004, show that contribution
of structural change to overall productivity growth has
been small and within-sector growth has been a
volatile but major contributor especially in the 2000s.
Advanced economies in the West as well as in Asia
have all taken the manufacturing route to structural
change and economic growth. This is a less effective
option now for developing countries primarily because
of rapid diffusion of technology leading to lesser
employment in manufacturing. As a result, there is a
lack of consensus on whether reliance on manufac-
turing-led growth is still worth pursuing or whether
services-led structural change can also drive economic
growth. At one end of the spectrum are economists
such as Rodrik (2011), who argue that manufacturing
is the vehicle for economic growth. Rodrik shows that
manufacturing, unlike economies as a whole, exhibits
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rapid growth leading to unconditional (i.e. notwith-
standing geographic or country-level influences) con-
vergence toward the frontier. This implies that
manufacturing in poorer countries and less productive
manufacturing activities grow more rapidly than
manufacturing in richer countries and more productive
manufacturing activities.
On the other end of the debate are Ghani and
O’Connell (2014) who have analyzed data for various
countries including India and show that services
growth has shown much stronger convergence
between countries compared with manufacturing
which has shown only mild convergence.
Amirapu and Subramanian (2015) conclude that the
question is not of manufacturing versus services-led
structural transformation but that of comparative
advantage defying or comparative advantage deifying
activities-led growth. They identify five conditions a
subsector needs to satisfy to be a driver of economic
growth: high level of productivity, high growth rates
of productivity and domestic as well as international
convergence, expansion of a sector in its use of inputs,
comparative advantage and exportability. We repro-
duce a summary scorecard on their assessment of
various parts of the Indian economy on these condi-
tions between 1984 and 2010 (Table 1). The last row
on IT-BPM has been added by us.
The table shows, for example, that Registered
Manufacturing in India has potential for structural
transformation by virtue of having very high levels of
productivity compared with unregistered manufactur-
ing as well other parts of the economy. With respect to
convergence, i.e., labor productivity growth being
negatively correlated with initial level of labor
productivity, registered manufacturing exhibited
strong unconditional convergence within India. How-
ever, international convergence is elusive as the
subsector exhibits labor productivity growth that is
several percentage points below the international
frontier. With respect to its ability to absorb labor,
India is experiencing premature de-industrialization
and the share of industrial employment has failed to
increase. Registered manufacturing also employs a
disproportionately high share of labor with relatively
higher levels of education which is not in alignment
with India’s comparative advantage. While the output
is clearly exportable, the inability to converge to the
international frontier and to absorb labor and misalign-
ment with India’s comparative advantage have held
the manufacturing sector back from being a driver of
economic growth.
In the rest of the article, we examine the IT-BPM
industry’s past and potential performance along these
dimensions and demonstrate how it is well-placed to
be a driver of India’s economic growth.
Table 1 Evaluation of subsectors. Source: Amirapu and Subramanian, 2005
1. High
productivity
(level)
2.a Domestic
convergence
2b. International
convergence
3. Ability to
absorb labor
4. Comparative
advantage
5.
Exportability
Registered
Manufacturing
Yes Yes No No No Yes
Trade, hotels and
restaurants
No Yes No Somewhat Somewhat No
Transport, storage and
communication
No Yes No Somewhat Somewhat Somewhat
Financial services and
insurance
Yes Yes Yes No No Yes
Real est. and business
services, etc.
Yes Yes Yes Somewhat No Somewhat
Construction No Yes Yes Yes Yes No
IT-BPM Yes Yes Yes No No Yes
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IT-BPM: role of policy and importance
to the Indian economy
The role of industrial policy
Indian manufacturing has had a few success stories
over the years, such as Pharmaceuticals and more
recently Automobiles. But overall, there is agreement
that, a combination of political economy, suspicion of
private entrepreneurship, and lack of a well-coordi-
nated industrial policy failed to develop India’s
manufacturing sector and, had a negative effect on it
through restrictive rules and myriad regulations
(Bhagwati 1993; Chibber 2003; Nagaraj 2017). On
the other hand, there is considerable disagreement
regarding contribution of India’s policy regime in
growth of the IT-BPM industry.
Some researchers (Lin 2012; Kapur 2002; Balakr-
ishnan 2006; Heeks and Nicholson 2004) point to a
more facilitating role played by government in IT-
ITES (IT-enabled services) as compared with inter-
ference in manufacturing. This includes greater labor
market flexibility, establishment of Software Tech-
nology Parks since 1989 with world-class infrastruc-
ture, heavily subsidized technical education, tax
breaks, an overall export enabling infrastructure,
efficient collective action by industry body NASS-
COM (National Association for Software and Services
Companies) working jointly with the government and
existence of rules such as the MRTP Act (Monopolies
and Restrictive Trade Practices) which restricted large
industrial houses from getting bigger by setting up IT
companies. Indefinite designation of English as
India’s other official language after the 1950s ensured
that by 1970s, the country had a large pool of English-
speaking labor force (Kapur 2002).
While the above-mentioned items helped the
industry in its infancy, the reforms of 1991 provided
a serious impetus. Software firms which lacked
collateral had hitherto found it difficult to borrow.
After 1991, they were granted freedom to raise equity
capital domestically as well as from markets abroad.
Even in its somewhat matured state now, IT-ITES
industry continues to get favorable policy treatment
from various state governments. 2
On the other hand, Dossani (2008) is of the view
that the industry’s growth has been a result of private
entrepreneurial skills and that the state in India played
a restrictive role. He documents the government’s
suspicion of IT using the case of Texas Instruments-
one of the earliest MNCs in India in this space. The
company was subjected to daily end-of-day inspec-
tion, of export of software code to its head office in the
USA. Private enterprise had proven its capabilities
since the 1970s and could establish more trust with
clients in the western world during the Y2K boom in
demand for IT services. In conjunction, drastic
reduction in IT/Telecom infrastructure costs facili-
tated the offshore delivery model.
Nilekani (2009) has a more balanced view of the
government’s intent in that Rajiv Gandhi govern-
ment’s New Computer Policy of 1984 was seen as a
move in the right direction and gave wings to fledgling
companies such as Infosys in their efforts to tap export
markets. He also acknowledged the resistance in
overall government machinery regarding adoption of
IT and lack of basic infrastructure such as electricity
that never allowed IT to take off in the domestic set-up
till the early 2000s. Lee et al. (2014) attribute Indian
IT’s success to initial catch-up followed by leap-
frogging to high value adding work via innovation,
critical events in the technology landscape such as the
Y2K problem and to support from government
policies such as those related to foreign exchange
and special economic zones.
Nevertheless, it seems fair to say that, at least in part
as a result of industrial policy at the Central as well as
the state level, India now has a strong and competitive
IT services industry. Its contribution to India’s GDP
at * 7%, share in exports at * 30% and share in service exports at 60% underscores what the sector has
achieved in comparison with other segments of the
economy. However, the industry is not a big direct
contributor to job creation—direct employment at 4
million is less than 1% of India’s workforce. Consid-
ering indirect effects, total jobs created including
2 Directed toward job creating investments, states provide
single window clearance, assured power supply, world-class
telecom infrastructure, as well as liberal incentives in the form
Footnote 2 continued
of reduced stamp duty, exemptions from land zoning regula-
tions, incentives on training, reimbursement of quality certifi-
cation costs, preference in government procurement, investment
subsidy, exemption from Industrial Employment rules and
others (AP Govt ICT Policy 2002–2005, 2005–2010,
2010–2015; Karnataka ICT Group 2020 Report; Kandalam
2019).
Decision (December 2020) 47(4):341–361 345
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those due to significant investments in the IT industry
are estimated to not exceed 10–13 million. For
comparison, construction employs around 50 million
workers. Looked at this way, the industry perhaps does
not offer much hope in alleviating India’s jobs crisis.
However, as we discuss below and as also argued by
Dossani (2018), a large part of the world IT spending
has still not been outsourced or offshored and the
growing digitalization of businesses the world over
including new purely digital business models and
technology-based platforms offers tremendous scope
for direct and indirect job creation in the Indian IT
industry. Finally, while we do not discuss this in this
article, we do acknowledge contributions of the IT-
BPM sector in developing an aspirational middle class
in India as well as a tool for better governance and
delivery of public services.
Contribution to exports
India’s service sector as a whole clearly stands out for
its high share in exports relative to its share in GVA
(Fig. 1). Services sector’s contribution to exports as a
proportion of its contribution to GVA was 0.77 in
FY07 which, although lower in FY17 at 0.7, is still
much higher than the world average at 0.3 in FY07 and
0.34 in FY17. This is in large part attributable to the
IT-BPM sector. Its share in exports is * 30%, its share in service exports is * 60%.
Indian IT-BPM industry is primarily an export
dominated story with total exports at USD 136 billion
more than three times of domestic sales at USD 41
billion for FY19. In FY10, domestic revenues for the
industry at USD 24 billion were nearly half of exports
revenues at USD 50 billion and the gap has grown over
time (Fig. 2).
Total IT-BPM exports grew 152% from USD 50
billion to USD 126 billion between FY10 and FY18.
During the same time, software products and engi-
neering R&D services segment grew the fastest
(? 211%) from USD 9 billion to USD 28 billion
followed by IT Services (? 141%) from USD 29
billion to USD 70 billion and BPM (? 133%) from
USD 12 billion to USD 28 billion. As a result, the
share of software products increased over the period
from 18 to 22% (Fig. 3).
Given the weakness in manufacturing exports, the
IT-BPM sector has consistently been contributing
toward foreign exchange earnings- a much needed
cushion to compensate for India’s price inelastic oil,
gold and electronics imports. In the 10 years between
FY10 and FY19, IT- BPM exports have increased
much faster than overall services exports, merchandise
exports and total exports. While total exports almost
doubled in value over this period, IT-BPM exports
increased 2.7 times (Fig. 4).
In terms of regional break-up of gross exports, the
US as a market dominates with 62% share (Fig. 5)
followed by Europe at 23.5% and East Asia at 7.2%
Fig. 1 Share of service in exports to share of services in GVA. Source: India’s Economic Survey (2019)
346 Decision (December 2020) 47(4):341–361
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(Gupta et al. 2017). However, when looked at as value-
added in final demand, these three regions contribute
equally. This is in sync with our understanding of
business models of Indian IT companies i.e. mainly
focussing on offshore outsourcing business for IT
majors in the USA, a relatively lower value-added
activity. Interestingly, India’s IT exports looked at as
value-added in the gross exports of major regions of
the world reveal East and South-East Asia on top
with * 55% share. This means that a large proportion of IT-BPM exports to this region are of a higher value-
added variety than those going to the USA and Europe.
The foregoing demonstrates how the IT-BPM
industry fulfils the ‘exportability’ condition listed in
Table 1 and has been a strong pillar of India’s
economic growth.
Employment, wages and firm size
Of India’s total workforce of * 480 million, total employment in the IT-BPM industry is * 4 million. Given its high contribution to GDP (around 7%), the
sector thus has a low ‘job intensity’. Job intensity is
defined as a sector or industry’s share in total
employment divided by its share in value-added. As
Fig. 2 Trend in domestic versus export revenues for Indian IT-BPM. Source: India’s Economic Survey (2019)
Fig. 3 Changing composition of IT-BPM exports (% share). Source: India Brand Equity Foundation
Decision (December 2020) 47(4):341–361 347
123
shown in Fig. 6 using data for 2019, Construction
leads the way here with a job intensity of 2.1, followed
by 1.9 for Hotels and Restaurants, 0.95 for Trade and
0.3 for Business Services (which includes IT-BPM).
Note that job intensity is essentially the reverse of
relative labor productivity. Thus, in terms of the
desirable conditions from Table 1, the IT-BPM indus-
try demonstrates very high levels of productivity
though, thus far, its ability to absorb labor in large
numbers has been poor.
IT services require far more technical skills and
technology-oriented degree education as compared to
BPM services which normally employ English-speak-
ing graduates from all streams. This is in line with
availability of a skilled talent pool, but by itself, this
segment is not labor-intensive globally.
Despite the low direct employment provided by the
industry, however, IT-BPM also has substantial mul-
tiplier employment effects on other sectors of the
Indian economy. Academic research and leading
consulting organisations (Tholons 2011; NASSCOM;
Dahlman 2009) estimate the multiplier effect to be 3 to
4 i.e. every new tech job creates 3 to 4 additional jobs 3
in the overall economy.
As compared to most of the service sector,
however, the industry employs labor with a much
Fig. 4 IT-BPM exports have risen faster than overall as well as other service exports. Source: India’s Economic Survey (2019)
Fig. 5 Buyers of India’s software exports (% share in gross & value-added terms). Source: Gupta et al. (2017)
3 These jobs are in construction, retail, restaurants, transporta-
tion, hospitality, healthcare and other sectors.
348 Decision (December 2020) 47(4):341–361
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higher level of formal education. Hence wages are
higher than in other sectors and working conditions are
in line with those prevailing internationally, thereby
indicating that the sector offers better quality work
opportunities. Based on a survey conducted by a
leading human capital consulting firm (Monster India/
Paycheck.in with IIM- Ahmedabad as research part-
ner), wages in IT services are substantially better than
other sectors within services and manufacturing. 4
Looking at data for the eight sectors covered in this
report, highest median gross hourly wages were paid
in the IT services sector standing at INR 317.6
(* USD 4.5) in 2017. While well-paying in the Indian context, it must be noted that these wages are
low and competitive in the global context as we
discuss later in Sect. 4.2.
Wages in the IT-BPM sector are higher than the
average wage in the economy for both entry-level and
senior positions (Fig. 7). Khatiwada and Flaminiano
(2019) note that entry-level salaries 5
were 2–3 times
and senior-level salaries were 4–15 times more than
median salaries in the economy.
Lastly, we note that, based on industry body
NASSCOM accounts, a few large and medium sized
firms (Table 2 based on data for 2019) contribute a
bulk * 80% of the industry’s exports revenues (* 65% employment) and small and emerging firms employ * 33% of the industry’s workforce (* 20% revenues).
This indicates the tendency toward larger sized
firms in an economy otherwise dominated by micro
and small enterprises. A different source, the All-India
Quarterly Employment Survey of the Indian Labour
Bureau reported that, as of 2016, nearly 4% of firms in
IT-BPM had more than 5000 employees, far greater
than any other sector. Manufacturing was a distant
second at 0.26%. Thus, despite being much smaller
than manufacturing, IT-BPM accounts for 48% of
establishments with more than 5000 workers (State of
Working India 2018). Since quality of work is known
to improve with firm size due to more regulated labor
practices, taken together these data point to better
quality and well-paid job opportunities in this sector.
Fig. 6 Job Intensity (share of employment/share of VA). Source: KLEMS Database
4 The sample used for the analysis consists of 20,994 respon-
dents, 82.3% of which are men and 17.7% women. Employees
from different age groups, industries, and various hierarchical
positions in their respective occupations are included. 5
The authors use 5775 data points collected directly from
employees, users, and job advertisements posted on Indeed.com
(a leading job portal) over a period of 36 months. For senior
Footnote 5 continued
level salaries, they use an existing study of more than 3000
executives.
Decision (December 2020) 47(4):341–361 349
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Fig. 7 Wage premiums in IT-BPM (2018). Source: Khatiwada and Flaminiano (2019)
350 Decision (December 2020) 47(4):341–361
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It should be clear from the foregoing that the IT-
BPM industry is worth focusing attention on as a
leading service-sector industry to aid India’s structural
transformation. However, the question is, what are its
prospects for growth and employment generation? We
turn to this question next.
India in the global IT-BPM industry and the way
forward
World spending and India’s share
Indian IT caters to a small portion of world spending
but has a high share of ‘global sourcing’. The global
IT-BPM market of USD 4.5 trillion is made up of the
following segments: IT services (USD 694 billion),
BPM (USD 198 billion), Packaged software products
(USD 515 billion), Engineering R&D (USD 1954
billion) and Hardware (USD 1113 billion). India’s IT-
BPM industry has high shares in the global market for
IT services at 13% and BPM services at 18%. The
industry’s shares in Engineering R&D and Hardware
sub-segments are minuscule at 1.8% and 1.3%,
respectively, with negligible share in the packaged
software products market.
The Indian IT-BPM industry is at the frontier in its
chosen domain and over the years has converged to
productivity standards in the more advanced markets
thus satisfying the condition for ‘international con-
vergence’ from Table 1. Looked at as a share of global
outsourcing (as opposed to the entire market) India has
an impressive 64% and 38% share in IT services and
BPM, respectively. But these activities are relatively
low value adding and low skilled within their respec-
tive domains and more amenable to automation.
India’s share in the relatively higher value-adding
software products and engineering space is low at
1.4%. China has a much larger share given its
dominance in the manufacturing sector. India’s share
in hardware pertaining to IT-BPM sector is 1.3%.
Again, China is much stronger here. This segment of
the market is employment intensive and China also
benefits by embedding/bundling indigenously pro-
duced software with hardware.
While India is a leader in the world IT services
market, China has been rapidly growing its share of
world exports (Fig. 8). While India started from a
higher base, between FY04 and FY17, China’s IT
services exports have risen 10 times (from USD 2.2
billion to USD 27 billion) whereas India’s have
risen * 5 times (from USD 17 billion to USD 79 billion) and growth in India’s revenues has plateaued
over the last few years. Released in 2015, China’s
‘‘Made in China 2025’’ industrial policy is aimed at
rapidly expanding ten high-tech sectors and develop-
ing its advanced manufacturing base. The main aim of
this policy is to reduce dependence on foreign
technology and achieve a dominant position in global
markets. 6
We now look at the different segments of the
market more closely. Software product and Engineer-
ing R&D includes all activities that relate to genera-
tion of Intellectual Property (IP). Given the nonlinear
payoffs from R&D, high investment requirements and
an enabling ecosystem to encourage research,
returns/margins are typically much higher. This also
includes managing the product lifecycle. 7
Packaged
software products, in particular, include off-the-shelf
and standardized products that cater to a very large
market and their development process must typically
have foreseen requirements of all potential users.
Table 2 Size distribution of IT-BPM firms. Source: NASSCOM Strategic
Review 2019
Category Players (Nos) % of Exports revenue % of total employees
Large 11 47–50% ([ USD 1 bn) * 35 to 38% Mid 85–100 32–35% (USD 100mn- 1 bn) * 28 to 30%
Emerging 450–600 9–10% (USD 10 mn- 100mn) * 15 to 20%
Small/start-ups [ 4000 9–10% (\ USD 10mn) * 15 to 18%
6 We have compared India’s performance to only China and
USA—the former because of a large domestic IT market and a
potential threat to India’s dominance in the global market and
the latter because of its high share in overall world IT-BPM
spending. Other countries such as Philippines, Poland and others
have not been considered as they are much smaller than the
Indian IT-BPM industry and given that they do not cover the
entire spectrum of IT-BPM services, do not pose an existential
threat to Indian IT-BPM. 7
This includes decisions related to timing of introduction,
withdrawal or upgrades in existing products.
Decision (December 2020) 47(4):341–361 351
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Accordingly, large software products companies are
domiciled in markets such as the US with the
maximum end-users.
Often these standardized products also need some
level of customization and further development,
integration with existing systems or software already
in use in end-user environments. This and activities
such as testing software before a software products
company launches it to end users, managing a firm’s
existing IT infrastructure, implementation of software
products, training end-users, software related docu-
mentation and troubleshooting are collectively a part
of IT services. This is the segment in which Indian IT
firms have a very high share in the global market. The
IT services revenue of Indian IT-BPM industry is
broken-up as follows: CADM- 47%, ISO- 21%,
Testing- 8%, Support and Training- 7%, System
Integration- 3%, IT Consulting- 3% and others- 11%.
The hardware market includes all the business and
personal user equipment including servers, network
equipment, desktop and laptop computers, etc. India is
virtually absent from this market at a global level.
Very little of the USD 14.5bn Indian hardware market
is produced in India and the rest is all imported.
Following Buxmann et al. (2013), we note that one
way to classify software 8
is on the level of standard-
ization i.e. custom or standard software. India mainly
deals in custom software and as noted above, the lack
of a domestic market means it must compete with
players in the global market. Standard software is
produced for the mass market- for example, Oracle
and SAP. Even standardized software can be cus-
tomized to some extent often through something
called integration software. The licensing side of
software business (‘‘Inventor’’ in Fig. 9) is more
profitable than the services side (‘‘software re-seller’’
in Fig. 9). Software can be reproduced cheaply
because variable costs are close to zero. While
licensing is far more profitable business than providing
services, over a period, pure-play product companies
have also increased the share of services in their total
revenues. Indian IT players are primarily involved on
the IT services side which relates to the implementa-
tion and operating software sides of the ecosystem. In
their role as consultants and integrators, they act as
resellers of software. We note that high-end activities
i.e. product research, product development, marketing
and documentation are usually carried out by software
creators themselves. Lower value-adding activities
such as implementation, training, pre-sales support
and maintenance are usually outsourced.
India’s position in the value chain
Indian technology industry has historically been on the
lower side of value-added. The ‘Smile Curve’
(Fig. 10) represents India’s position in the global IT-
BPM value chain (Jui 2010). On the y-axis is the value
added in the IT software value chain and on the x-axis
are the major steps starting with innovation, product
Fig. 8 World IT services exports (USD bn). Source: India’s Economic Survey (2019)
8 Software can also be classified on the basis of how directly it
interacts with the hardware: system software, middleware and
application software.
352 Decision (December 2020) 47(4):341–361
123
definition, software development, deployment and
integration and activities involved in reaching the end
customer. A bulk of the work done by Indian IT
companies falls in the middle, low-value-adding
segments of the chain highlighted in red.
Though undergoing a revamp now, the hitherto
widely followed Global Delivery Model of India’s
major technology companies involved high value
activities delivered onshore and relatively low value
adding and labor-intensive activities performed off-
shore in locations such as India. Table 3 shows a
representative split of activities in software develop-
ment for Infosys Technologies.
India’s dominance in the relatively lower end of
activities in the technology sector are also a reflection
of the R&D and innovation ecosystem in India. Based
on data up to 2014, global consulting firm PWC
released the 100 Global Software Leaders Report. At
that time, total revenues of all software companies
globally were * USD 385 billion. Of this, the Global
Top 100 had revenues of USD 272 billion (71% share).
The Top 100 list is dominated by firms from the US
with no representation from India. The Top 30 list
from emerging markets is dominated by China (USD
2.2 billion) and Russia and other Eastern European
countries (USD 2 billion). There were only 4 Indian
companies in the emerging markets list.
Based on data from the US-based National Science
Foundation’s Science and Engineering Indicators for
2018, worldwide expected expenditures in 2015 on
R&D 9
were USD 1.9 trillion. Of this, spending by US,
China and India was USD 497 billion, USD 409 billion
and USD 50 billion, respectively, in PPP terms. The
inadequacy of India’s USD 50 billion R&D expendi-
ture can be judged from a comparison with that of
some large firms such as Huawei (USD 14 billion),
Fig. 9 Software business-role of inventors and re-sellers. Source: Author’s own understanding of the industry
Fig. 10 Smile curve. Source: Jui (2010)
9 This includes all kinds of R&D expenditure though a large
part of it is tech-driven across industries and not just specific to
IT industries.
Decision (December 2020) 47(4):341–361 353
123
Amazon (USD 22.6 billion), Alphabet (USD 16.6
billion), Intel (USD 13.1 billion), Microsoft (USD
12.3 billion) and Apple (USD 11.6 billion). 10
India’s
stock of current patents is at 60,000 in comparison
with 2.9 million for the US and 2.1 million for China.
However, what makes India’s position competitive
is the significantly lower wages (Buxmann et al.
2013). In 2010, the annual salary of an IT project
manager in India was EUR 15,000 which is approx-
imately 1/4 th
of that in USA (EUR 59,000) and
Germany (EUR 55,000). Salary for this profile in
China was EUR 20,000 in 2010 and has shot up rapidly
in the years after that.
There are two key avenues for expansion of Indian
IT-BPM under the present circumstances. First, with
relocation of manufacturing value chains from China
to other Asian countries, an opportunity opens to
expanding IT exports that support these GVCs. And
second, the Indian domestic market remains quite
underdeveloped even in industries where IT has
become part of core functioning, such as Banking.
Despite the historical positioning of Indian firms in
the IT-BPM industry, an aspect that deserves discus-
sion is the work done by early stage privately held
firms. We quote one such example of a firm—
Automation Anywhere (AA), that originated in India
(Baroda in Gujarat) but moved base to San Jose in the
USA. AA is among the top 3 players in the world in
software for Robotics Process Automation (RPA).
According to a leading IT Consulting firm Gartner 11
(2020), the RPA software market is one of the fastest-
growing segments in the enterprise software market,
with a rising competitive bar and many new entrants. It
grew 63.1% in 2018 and 62.9% in 2019, compared
with the 13.5% and 11.5% growth, respectively, of the
overall enterprise software market. The RPA software
market includes more than 45 vendors as of mid-2020
with the ten largest RPA software vendors accounting
for over 70% of market share in the worldwide RPA
market. AA is among the four ‘Leaders’ on the Gartner
Magic Quadrant for Robotics Process Automation (out
of sixteen vendors) well ahead of much bigger players
in the IT industry such as Microsoft, SAP, NTT,
Edgeverve Systems (part of Infosys). The other
categories in the Magic quadrant are Challengers,
Visionaries and Niche players.
From an employment perspective, AA creates jobs
in India for engineers from Tier 2/Tier 3 institutions
who find RPA a more attractive career option than it is
for engineers from the Tier 1 institutions. Primary
reason attributed to this is the relatively ‘easier’
technology behind proprietary RPA solutions i.e. it
requires simple coding skills akin to those required for
Visual Basic for Applications (VBA) coding in MS-
Office. Given the technology, AA’s implementation
partners (large Indian IT Services firms) are able to
hire from several rural locations and have observed
them grow on to previously inaccessible job roles such
as that of a Solution Developer. 12
Relocation of manufacturing GVCs
and opportunity for IT exports
Growth of China’s software industry has been driven
by captive demand from its hardware industry (Jui
2010). The manufacturing sector in general has also
provided a captive market for the Chinese software
industry. With the trade wars between China and the
US, several companies are relocating from China, and
this presents an opportunity for Indian IT. A study by
analysts at investment bank Nomura recently identi-
fied 56 companies that exited China over a seventeen
Table 3 Activities in software development—
Infosys Technologies.
Source: NASSCOM
Onshore Nearshore Farshore
Architecture Requirements analysis Detailed design
Requirements High-level design Code development
Change management Prototype building Testing and integration
Implementation Implementation support
10 Source: https://www.vox.com/2018/4/9/17204004/amazon-
research-development-rd. 11
https://www.automationanywhere.com/lp/gartner-magic-
quadrant.
12 Based on a telephonic conversation with Mr Sumeet Pathak-
Digital Evangelist, IMEA (India, Middle East & Africa) for
Automation Anywhere.
354 Decision (December 2020) 47(4):341–361
123
months period. 13
Only 3 relocated to India and a
majority moved to Vietnam and Thailand. Relocation
of GVCs to India and their continued success will
definitely need development and expansion of a robust
services setup supporting manufacturing such as
logistics, and warehousing.
As a starting point for potential for success of this
relocation strategy, we next look at the current level of
penetration in ‘factory Asia’ by Indian IT firms. This
section draws on work by Gupta, Oak and Mukherjee
(2017). A limitation of the study is that it is based on
input–output data till 2011. We consider the value of
India’s exports to South-East Asian countries, the total
world imports of IT services by these countries and
supply of IT services by their domestic industry. We
note that, at least as of 2011, Indian IT’s share of
overall demand in these countries is low (\ 10%) except in Indonesia. Most countries have a domestic
industry equal to or slightly larger than the purchases
from Indian IT industry. From this, it does not appear
that these countries individually are a threat to the
Indian IT industry and its prospects in the East and
South-East Asia market.
Indian IT and the domestic market
Using data from the database ceic.com, we next look at
how the IT-BPM sector’s exports and local sales as
well as workforce catering to exports and local
markets have grown over the 10-year period from
FY10 to FY19. In INR terms, both the exports and
domestic markets have more than doubled in the
10 years i.e. from a base of 100 to 272 and 252,
respectively (Fig. 11). However, since export rev-
enues start from a much higher base and grow faster,
the gap between them has grown. In FY 19, revenues
from domestic sources for Indian IT-BPM industry
were * 23% of total revenue. We have analyzed a sample of FY19 revenues of
top Indian technology firms (Table 4). India business
contributes to * 4% of their revenues. Focus is mainly the exports markets and the domestic market
is considered low margin and the government market
marred with elongated payment terms/heavy up-front
investments.
The domestic market is split as follows: IT services
(41%), BPM (10%), Software, products and engineer-
ing (13%) and Hardware (35%). A key point here is
that very little of this hardware expenditure is on
domestically produced hardware. As a result, domestic
capacity is grossly underutilised. Production units of
major personal computer manufacturers are utilized to
the extent of * 20%.14
Future growth in the domestic market is expected to
come from two sources, outsourcing of in-house IT and
upgrade in well-penetrated verticals. Four sectors account
for more than 60% IT spending 15
—Banking, Govern-
ment, Manufacturing and Telecom. Emerging sectors for
future growth are Education and Life Sciences and
Healthcare. For Telecom, IT is a core activity yet is
outsourced actively, Manufacturing has low penetration
of IT, Media is characterized by multi-vendor small
contracts and in Retail, IT spending is by the organized
segment only and hence, not as high as it should be.
Taking a closer look at Banking, 16
we see that only
17% of PSBs have required system capabilities (single-
view of customer transactions, Return on Equity calcu-
lation on deals, data warehousing for credit modelling
and CRM, workflow automation in HR processes and in
retail credit processes)- versus 67% foreign banks and
27% private banks (BCG-CII 2013).
Indian banks typically rely on multiple vendors for
their software requirements. Revenue-stream specific
Application Software is used by banks for collections
and liquidity management, risk management, capital
calculation, trade finance, etc. SBI uses both Infosys’
Finacle as well as TCS’ Bancs for core banking in
India and International business, respectively. While
most foreign banks also use a mix and match of
systems, their core banking systems are the same
worldwide and often developed in-house. The top
Indian banks use Infosys’ Finacle, TCS’ Bancs and
Oracle’s Flexcube. A large number of firms listed in
13 https://www.livemint.com/industry/manufacturing/why-
manufacturers-are-not-rushing-into-india-11570429217983.
html.
14 Source: https://economictimes.indiatimes.com/tech/
hardware/indias-pc-manufacturing-capacity-under-utilised-up-
to-80-as-per-industry-ravi-shankar-prasad/articleshow/
70363415.cms. 15
Spending by top verticals in Rupees crores for FY12 (BCG-
CII 2013) was as follows: Banking (18,500), Telecom (15,000),
Manufacturing (12,300), Media, Publishing & Entertainment
(10,700) and Retail (6600). 16
One of the authors (Gaurav Gupta) has worked for several
years in Banking. The following is partly based on his personal
knowledge of the industry.
Decision (December 2020) 47(4):341–361 355
123
Table 4 and other mid-tier firms cater to common
clients demonstrating ‘domestic convergence’ in pro-
ductivity, again satisfying one of the key conditions
from Table 1.
Potential for job creation17
As we saw in Fig. 11, there appears to have been a
healthy growth of jobs in both export and domestic
sectors over the past 10 years (an increase of 1.9 times
for export jobs and 1.6 times for domestic jobs). But as
mentioned earlier, the industry as such is not labor-
intensive and only employs around 4 million people in
India.
Further, around 20–35% of these jobs are estimated
to be at risk of redundancy with the deployment of
technologies such as robotics process automation i.e.
automation of rules-based tasks for execution without
human intervention, and intelligent automation i.e.
automation of tasks requiring judgement where
machines can be trained with large volumes of
historical data. Industry estimates project an increase
in employment in IT-BPM to 4.5 million by 2022
(NASSCOM Strategic Review 2019; Team Lease Jobs
and Salaries Primer 2019). Of this projected figure,
10–20% jobs are estimated to be new and 60–65% are
estimated to need new skills.
The likely impact of technology on jobs in key job
providing sectors of India’s economy is summarized in
Table 5. Key factors/trends that will shape the future
of employment in the IT-BPM industry and other
sectors include globalization and trade, FDI flows,
adoption of exponential technologies and their impact
on offshoring, demographics and increasing local
demand, and connected products and services.
Fig. 11 Revenues & Jobs Growth (exports & local sales): Index, FY 2010 = 100. Source: www.ceic.com
Table 4 FY19 total and domestic revenue of Indian IT-BPM firms. Source: Annual reports of companies, 2019
In Rs crores FY19 Revenue India Revenue
Wipro 59,000 3100
Infosys 83,000 2100
Tech Mahidra 35,000 NA
HCL 60,500 2100
Mindtree 7000 300
L&T Infotech 9500 700
Persistent System 3400 250
Total (rounded off) 404,000 17,000
17 In this section, we have quoted estimates of job creation
from different studies. However, none provide explicit details
of how those numbers have been arrived at.
356 Decision (December 2020) 47(4):341–361
123
With respect to manufacturing, the current stock of
robots globally is concentrated in capital-intensive
(and assembly using hard materials vs soft materials
like textiles) and high-wage industries (e.g., transport
equipment, electrical equipment vs textiles). In addi-
tion, not everything is economically feasible to
automate. Employment share of sectors such as
textiles, which are less amenable to automation is
much higher.
As far as India and other Asian economies are
concerned, new jobs from rising demand will com-
pensate for displacement of jobs by technology (ADB
2018). Reshoring is also not perceived to be a big
threat to jobs in India. Several new job titles show
creation of new jobs that did not exist a few years ago
(Karnik 2019).
We take a brief look at the estimate of direct/
indirect job creation including enablement of new
business models via IT-BPM.
FDI and job creation
Over the period FY01 to FY19, services sector overall
and the sub-segment ‘computers (including software
and hardware)’ attracted 50% and 9% of the total
Foreign Direct Investment into India of USD 421
billion, respectively. FDI can be directed toward two
purposes: setting up a new business or buying an
existing business. The former leads to net new job
creation whereas the latter could lead to net reduction
in jobs. We observe no direct relationship between
FDI inflows and job creation in India’s case.
FDI flows considered here pertain only to the
computer software and hardware industry and do not
include what has gone into business services or other
components of the IT-BPM industry. The average
inflows prior to 2015 have been * USD 1 billion after which it increased to USD 2.3 billion in 2015, USD 6
billion in 2016, USD 3.7 billion in 2017 and USD 6.2
billion in 2018. During this period of higher FDI
inflows, incremental new job creation has been going
down. From * 315,000 jobs created in 2014, incre- mental annual job creation in IT-BPM sector fell to
less than 100,000 in 2018 (source: ceic.com).
GVA and job creation
With progress in technology and consequent improve-
ments in labor productivity, there has been a decou-
pling of economic growth and employment growth.
Employment elasticity has declined sharply from 0.41
in 1980s to 0.2 between 1993 and 2012 (Exim Bank
2016).
A recent study by McKinsey on behalf of Ministry
of Electronics and Information Technology (Meity),
Government of India (2019) estimates that the digital
economy is likely to experience a fivefold jump in
GVA from * USD 200 million to * USD 1 trillion by 2025.
Industry revenues are expected to grow fast but
with the feasibility of automation technologies, job
creation will not follow the path it has been following
till now. Digital technologies 18
and businesses focuss-
ing on them are expected to dominate in future.
Revenues from digital technologies already contribute
to 20–25% of IT-BPM industry’s overall revenues. In
addition, these digital technologies will generate huge
volumes of data most of which will need to be housed
within India (for locally generated data) and India is
also emerging as a ‘‘co-location’’ for global companies
to store their data in India. This requires huge Data
Centres to be set up and will lead to opportunities for
real estate and other non-traded services as well.
Based on surveys of Indian IT-BPM firms, Indian
Staffing Federation estimates addition of 3 million
Table 5 Impact of technology on jobs-select
sectors. Source EY-FICCI 2017
New jobs New skills Redundant jobs
IT-BPM 10–20% 60–65% 20–35%
Automotive 5–10% 50–55% 10–15%
Textiles and apparel 5–10% 35–40% 15–20%
BFSI 15–20% 55–60% 20–25%
Retail 5–10% 20–25% 15–20%
18 Blockchain, Data Analytics, Artificial Intelligence (AI),
3Dprinting, Internet of Things (IoT), Automation & Robotics,
Cloud Computing.
Decision (December 2020) 47(4):341–361 357
123
tech jobs in the 5 years to 2023- this will be led by jobs
in digital technology areas mentioned above.
Exports and job creation
The employment intensity of services exports is lower
than that of manufacturing exports, and it has been
falling for both over the last decade or so. As per a
2016 EXIM Bank study, total exports-led employment
in India was 63 million in FY13 and services
contributed to * 20% of this at 12 million. Given the nature of technology-enabled work, highly skilled
workforce and the high productivity levels the IT-
BPM sector’s employment elasticity is low compared
to the rest of the services sector.
The EXIM Bank study estimates that for one crore
worth of exports, the Computer and related services
sector contributed to 6.7 jobs in FY08. This number
dropped to 5.3 in FY12.
Indirect job creation in other sectors and job
creation potential through new business models
made possible by technology
As noted earlier, IT jobs have an estimated multiplier
effect of 3 to 4. Estimates of indirect job creation will
be a function of the numbers of direct jobs created
influenced by a mix of FDI, contribution to GVA and
to exports.
While this is necessarily speculative, technology
also has the potential to transform the future of work.
Meity estimates creation of additional 60–65 million
jobs across sectors in the digital economy (new
employment opportunities enabled by internet and
exponential technologies) by 2025. E-commerce and
last mile logistics are another potential area of large-
scale job creation, as evidenced by the Alibaba
ecosystem in China which created 40 million ? direct
and indirect jobs in 2018 itself (Renmin University
2019). Lastly, there are examples of O2O (online to
offline) platforms, firms that started off purely online
are now rapidly establishing physical presence and
hiring staff for delivery and other functions (e.g.,
Lenskart).
A large volume of literature and discussions in the
popular press revolve around how platform businesses
in India such as those of Swiggy and OLA have
impacted lives in a major way, both from employment
and demand sides, by leveraging the power of
technology. However, what we would like to highlight
and briefly discuss below are two uncommon but
powerful examples of how Indian firms working on
solving problems in agriculture, industry and services
have embraced Advanced Technologies (such as
Internet-of-Things and Artificial Intelligence) and
Advanced Analytics in developing business models
that have the potential to be game changers within and
outside India. The two examples we discuss below are
those of Glocal Healthcare and Stellapps.
(a) Glocal Healthcare 19
: digital dispensary using
the power of IoT and AI
Glocal Healthcare- a chain of brick-and-mortar
low-cost hospitals in rural India, uses advanced
technology for medical decision support. Over the
past 10 years, the company has built ten fully
functional 100-bed multi-speciality hospitals in states
like Bihar, Uttar Pradesh, Odisha and West Bengal. It
has set up 250 digital dispensaries (HellolyfCX),
which provide video consultations, examination,
investigations and automated medicine dispensing.
These doctor-less clinics need only nurses to run them
but provide comprehensive primary care at prices
below $5 per episode. Glocal Healthcare Systems
models have also been implemented in Canada,
Ghana, Mali, Mongolia, Nigeria.
HellolyfCX Digital Dispensary (Healthcare-in-a-
box) offers end to end primary healthcare solution
based on the use of Internet-of-Things and Artificial
Intelligence. This solution recently won the presti-
gious Public Appreciation Award 2020 at the UN
Innovation’s Health Innovation Exchange (HIEx).
It is a portable digital clinic which is safe even in a
pandemic like COVID19, protected by UV-C light
disinfection, positive pressure and acrylic barrier
between the nurse and the patient. It does not require
a doctor. Doctors can see the patient remotely on
video, conduct examination remotely through Internet
of Things, all tests are done inside within 15 min using
Point of Care diagnostics, and medicines are dispensed
automatically from a machine.
19 https://www.ghspl.com/.
358 Decision (December 2020) 47(4):341–361
123
(b) Stellapps 20
: Data-led, internet of things based,
farm-to-consumer dairy supply chain
digitization
Stellapps is an India-based farm-to-consumer dairy
digitization service provider, improving farm produc-
tivity and milk quality and bringing supply chain
traceability to the industry. It is one of the two
companies from India recognized by the World
Economic Forum as part of Technology Pioneers
2020.
It leverages advanced analytics and artificial intel-
ligence through its full-stack internet of things plat-
form to enable dairy system partnerships (financial
and insurance institutions, veterinary services, etc.) to
drive significant value for each stakeholder, including
smallholder farmers. Stellapps digitizes 8 million
litres of milk daily and impacts 2 million dairy farmers
in 28,000 Indian villages.
Key takeaways for policymakers
India’s industrial policy needs to ensure that right
support is provided to industries that have proven their
capabilities at a global level, are best positioned to take
advantage of the technology-led business environment
and also have substantial spill-over effects on the rest
of the economy. Building on Rodrik (2007), we note
that the Central and State governments would do well
by continuing their active support for the IT-BPM
industry which satisfies the following Ten Design
Principles of Industrial Policy.
1. Incentives should be provided only to ‘‘new
activities’’: the IT industry is undergoing
another revolution with game changing/gen-
eral purpose technologies such as IoT and AI
having a near universal impact on every aspect
of our lives.
2. There should be clear benchmarks or criteria
for success and failure: IT-BPM industry has a
demonstrated track record of direct and indi-
rect contribution to the economy.
3. There must be a built-in sunset clause: as has
been the case with governments of industrially
successful countries across the world, given
the changing technology landscape, the Indian
IT-BPM industry continues to need policy
support in the initial stages as it positions itself
toward moving up the value chain.
4. Public support must target activities, not
sectors: technology is pervasive and touches
every aspect of our lives- not just new business
models but also better delivery of public
services.
5. Activities that are subsidized must have clear
potential of providing spill-overs and demon-
stration effects: as discussed in the initial
section of this article, IT-BPM sector has clear
spill-over benefits for other sectors of the
economy. Success here has also given Indian
companies the confidence to scale businesses
globally, as has been happening in the case of
new business models such as those of OYO,
Paytm, OLA.
6. The authority for carrying out industrial
policies must be vested in agencies with
demonstrated competence: Meity in close co-
operation with industry body NASSCOM
have demonstrated success in the past.
7. The implementing agencies must be monitored
closely by a principal with a clear stake in the
outcomes who has political authority at the
highest level.
8. The agencies carrying out promotion must
maintain channels of communication with the
private sector: NASSCOM plays a very
constructive role in the development of the
entire industry and is seen as a voice repre-
senting all types of players- big and small.
9. Mistakes that result in ‘‘picking the losers’’
will occur.
10. Activities need to have the capacity to renew
themselves, so that the cycle of discovery
becomes an ongoing one: technology by
nature is an evolving area where India has
managed, albeit to a limited extent, move up
the value chain starting from body-shopping to
project management within the software
space.
Indian Government’s Digital India Programme
(2015) and National Policy on Software Products
(NPSP 2019) are steps in the right direction. While
Digital India will help increase domestic penetration 20
https://widgets.weforum.org/techpioneers-2020/stellapps/
and https://www.stellapps.com/.
Decision (December 2020) 47(4):341–361 359
123
of IT, the NPSP envisages innovation-led tenfold
increase in the current low (\ 0.5%) share in the world software products market and creation of 3.5 million
direct/indirect jobs by 2025. However, there is little to
show by way of budgetary support or any material
change in the industry’s performance, especially with
respect to NPSP. Private initiative continues to bear
fruit. However, this time might prove to be different
and mere non-interference on the part of the govern-
ment may not be enough.
Conclusion
The world economy and the technology industry are at
the cusp of another internet-like disruption some of
which has already started to take shape. Industrial
policies of countries at the frontier 21
are focussed on
the interplay of new technologies, economic growth
and the future of employment. For example, as
Alcácer and Cruz-Machado (2019) articulate, Ger-
many’s Industrie 4.0 aims to work with a higher level
of automation achieving a higher level of operational
productivity and efficiency, connecting the physical to
the virtual world. It will bring computerization and
inter-connection into the traditional industry. The
future of manufacturing will involve more use of Big
Data and advanced technologies such as the IoT,
Industrial Automation, Cybersecurity, Cloud Com-
puting and Intelligent Robotics.
These kinds of digital technologies already make up
20–25% of revenues of India’s IT industry and Indian
companies are well positioned to capitalize on their
established position in the IT-BPM value chain, albeit
at the lower end. While the exports market will
continue to dominate, with the government’s focus on
better governance and delivery of public services and
transfers sans intermediaries, the domestic market will
also provide sufficient impetus for India’s IT-BPM
industry. New business models made possible mainly
because of digital technologies will be the new job
creators and technology can have a positive impact on
quality of work. What is required from the government
is a big push for developing the local IT industry as has
been done in China. India has always struggled to
retain talent within the country. To build an even more
robust IT-BPM industry, India would do well to retain
talent and create incentives for reversal of brain drain.
In conclusion, notwithstanding the large changes
afoot due to fourth industrial revolution technologies,
a continued and coordinated policy support for IT-
BPM has the potential to expand the industry and, in
the process create a large number of jobs in other
sectors as well.
Funding Not applicable.
Availability of data and material Not applicable.
Conflict of interest Not applicable.
Code availability Not applicable.
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- India’s Information Technology industry: prospects for growth and role in structural transformation
- Abstract
- Introduction
- Manufacturing and services: an increasingly weak distinction?
- IT-BPM: role of policy and importance to the Indian economy
- The role of industrial policy
- Contribution to exports
- Employment, wages and firm size
- India in the global IT-BPM industry and the way forward
- World spending and India’s share
- India’s position in the value chain
- Relocation of manufacturing GVCs and opportunity for IT exports
- Indian IT and the domestic market
- Potential for job creation
- FDI and job creation
- GVA and job creation
- Exports and job creation
- Indirect job creation in other sectors and job creation potential through new business models made possible by technology
- Key takeaways for policymakers
- Conclusion
- Availability of data and material
- References