A strategy guidance model to realize industrial digitalization in production companies
Management and Production Engineering Review
Volume 11 • Number 3 • September 2020 • pp. 14–25
DOI: 10.24425/mper.2020.134928
A STRATEGY GUIDANCE MODEL TO REALIZE INDUSTRIAL
DIGITALIZATION IN PRODUCTION COMPANIES
Andreas Schumacher1,2 , Wilfried Sihn1,2
1
2
University of Technology Vienna, Austria
Fraunhofer Austria Research GmbH, Austria
Corresponding author:
Andreas Schumacher
Fraunhofer Austria Research GmbH
Dept. Advanced Industrial Management
Theresianumgasse 7, 1040 Vienna, Austria
phone: +43 676 888 616 35
e-mail:
Received: 15 January 2020
Accepted: 27 July 2020
Abstract
The realization of digitalization in production companies – currently also referred to as Industry 4.0 – aims for reduction of internal value creation costs as well as costs for intercompany
collaboration and plays a key role in their current strategy development. However, related
strategy research still lacks to provide operationalized digitalization methods and tools to
practitioners with scientific rigor as well as real-world relevance. To challenge this status
quo, we present a scientifically grounded 14-step procedure model including 11 practically
tested tools, developed specifically for real-world application. The model leads practitioners
from their first contact with industrial digitalization, through the maturity assessment of
143 digitalization items, until the implementation of a KPI-monitoring system and a continuous improvement process. We applied and re-worked the procedure model during three
years of application. Validation and Feedback from practitioners and scholars indicate, that
the model drives strategy development towards objective and data-based decision making
and increases stakeholder engagement in organizations considerably.
Keywords
Industry 4.0, industrial production systems, strategy development, digitalization, automation.
Introduction and problem definition
By focusing ID on the industrial enterprise sector,
for which the EU aims at a target value of 20% of the
total value added to secure prosperity, the concepts
of ID are currently summarized within the industry
4.0-approach. Which pro-claims the Fourth Industrial Revolution by pursuing three target states [9, 10]:
1) horizontal integration via value creation networks;
2) digital consistency of engineering across the value
chain;
3) vertical integration and networked production
systems.
The fundamental goals of production companies
in the era of Industry 4.0 does not differ compared
to goals defined during traditional production- optimization approaches, such as increased productivity
through efficiency and flexibility as well as reduced
costs and complexity [11, 12]. However, our own re-
Increasing digitalization of data, thus information, as well as the automation of formerly manual processes, had a decisive influence on the development of society and economy in the last decades
[1, 2]. For example, a country’s degree of digitalization [3] correlates positively with the prosperity and
life satisfaction of its inhabitants [4]. Or in the economic sector, the use of digitalizing technologies and
the automation of processes have a positive effect on
the company’s performance [5–8]. In this paper we
build on these positive effects of Industrial Digitalization (ID). However, we acknowledge, that the digital
transformation of companies holds various challenges
and that pre-conditions such as educated workforce,
broadband internet or supporting laws have to exist
to manifest these positive effects.
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Management and Production Engineering Review
search and project experience in the field of Industry
4.0 [13–15], as well as expert interviews of the last
four years lead to the definition of two main challenges during implementation:
• the abstraction level of Industry 4.0 is too high for
operational implementation;
• guidance to operationally implement Industry 4.0
is missing.
As a result, Industry 4.0-concepts lack transfer
into industrial companies, thus the intended competitive advantage cannot be claimed. The basic motivation of this paper therefore lies in the reduction of
the abstraction level of Industry 4.0-strategy tools.
We aim to reduce abstraction via the development of
more easily understandable strategy tools of ID that
operationalize abstract Industry 4.0-tools.
Fig. 1. Industry 4.0-operationalization through DAVO.
At this stage, we state some working definitions
to transfer developments to an operational level.
Firstly, we present our interpretation of Industry 4.0
composed by an integrated framework of digitalization and automation applied on organizational and
value creation factors – short DAVO [16].
Following this framework, we argue that all concepts related to Industry 4.0 such as smart factories
or smart objects, and subsequently smart processes can be composed of integrated digitalization and
automation elements (Table 1).
Table 1
Working definitions for Digitization, Digitalization and
Automation [17].
Digitization
Digitalization
Automation
Describes the
conversion of
continuous
analog, noisy
and smoothly
varying information into
clear bits of
1s and 0s.
Describes the social implications of
increased computerassistance, new media and communication platforms for
economy, society and
culture and working
environments.
Describes the implementation of technology, software and
programs to accomplish a procedural
outcome with little
or no human interference.
Although these concepts are distinct, yet in practice they manifest in combined and integrated manners to realize modern production paradigms – such
as Industry 4.0. In the following, we refer to the utilization of these concepts in a combined manner as
Volume 11 • Number 3 • September 2020
Industrial Digitalization (ID). The concept of ID receives increased scientific attention as research contributions e.g. in the scientific database Science Direct show a 300%-increase between 2015 and 2019 or
results in the scientific search engine Google Scholar
show a 2100%-increase during the same time. However, we conclude that regarding strategic guidance
research related to ID, two fundamental research issues remain:
• frameworks, methods and models are developed on
a generic level with a lack of operationalization;
• a lack of holistic metrics to measure the implementation of ID in real production environments.
Moreover, interviews with practitioners revealed:
• a lack of tools that allow for evaluation of the own
operational ID development status in the company;
• missing operationally relevant approaches for systematic strategic planning of the implementation
of ID.
Based on these problems, we define two research
goals:
1) development of a practically applicable and holistic strategic guidance tool towards ID;
2) development of an ID-assessment tool on an operational level using quantitative measurement
metrics.
In order to define our research requirements and
build on the current state of the art, we carry out
an extensive literatur (...truncated)