ArticlePDF Available
T. Jeevitha, I MBA, Department of Management, M.Kumarasamy College of Engineering,
Karur, Tamilnadu,
L. Ramya, I MBA, Department of Management, M.Kumarasamy College of Engineering,
Karur, Tamilnadu,
An Industry 4.0 production system is thus flexible and enables individualized and
customized products. The aim of this paper is to present and facilitate an understanding of
Industry 4.0 concepts, its drivers, enablers, goals and limitations. The essence of the Industry 4.0
vision, the ―Internet of Things‖, is the ubiquitous connection of people, things and machines.
This connection is intended to produce a variety of new goods and services. Products, means of
transport or tools are expected to ―negotiate‖ within a virtual marketplace regarding which
production elements could best accomplish the next production step. This would create a
seamless link between the virtual world and the physical objects within the real world. The term
Industry 4.0 stands for the fourth industrial revolution. Best understood as a new level of
organization and control over the entire value chain of the life cycle of products, it is geared
towards increasingly individualized customer requirements. This cycle begins at the product
idea, covers the order placement and extends through to development and manufacturing, all the
way to the product delivery for the end customer, and concludes with recycling, encompassing
all resultant services. The basis for the fourth industrial revolution is the availability of all
relevant information in real time by connecting all instances involved in the value chain. The
ability to derive the optimal value-added flow at any time from the data is also vital. The
connection of people, things and systems creates dynamic, self-organizing, real-time optimized
value- added connections within and across companies. These can be optimized according to
different criteria such as costs, availability and consumption of resources.
Keywords: Industry 4.0, Internet of Things, Cyber Physical System, Smart Manufacturing
Cloud based Manufacturing, Enterprise-Resource-Planning
Our definition of the Industrial Internet or Industry 4.0 covers three aspects
Digitization and increased integration of vertical and horizontal value chains
Digitization of product and service offerings
Introduction of innovative digital business models
The fourth industrial revolution characterized by the increasing digitization and
interconnection of products, value chains and business models has arrived in the industrial
sector. Our study, Industry 4.0 Opportunities and Challenges of the Industrial Internet. It
presents the essential attributes, opportunities and challenges posed by this development. They
estimate the share of investments in Industry 4.0 solutions will account for more than 50% of
planned capital investments for the next five years. The first significant driver for the advance of
Industrial Internet solutions lies in the opportunity to integrate and better manage horizontal and
vertical value chains. Companies surveyed expect more than 18% higher productivity over the
next five years. While today only one fifth of the industrial companies have digitized their key
processes along the value chain; in five years’ time, 85% of companies will have implemented
Industry 4.0 solutions in all important business divisions.
The digitization and interconnection of products and services (Internet of Things/Services) is
a second important driver. It will contribute strongly to ensuring competitiveness and promises
additional revenues of 2% to 3% per year on average. A third major driver is the newly
emerging, often disruptive, digital business models that offer significant additional value to
customers through tailor-made solutions. These new business models are characterized by a
considerable increase of horizontal cooperation across the value chains, as well as the integrated
use and analysis of data. They are therefore capable of better fulfilling customer requirements.
The various opportunities, the large extent of change and the elevated need for investments
make the Industrial Internet one of the most important topics for corporate management.
However, the numerous challenges that the transition entails are also not to be underestimated.
Besides the partly still unclear business cases for the Industrial Internet at company level,
industry standards have to be defined and agreed upon and questions need to be answered, for
example, in the area of data protection.
For centuries, goods including food, clothing, houses and weaponry were manufactured
by hand or with the help of work animals. By the beginning of the 19th century, though,
manufacturing began to change dramatically with the introduction of Industry 1.0, and operations
rapidly developed from there. Here is an overview of that evolution.
In the 1800s, water- and steam-powered machines were developed to aid workers. As
production capabilities increased, business also grew from individual cottage owners taking care
of their own and maybe their neighbors’ — needs to organizations with owners, managers and
employees serving customers.
By the beginning of the 20th century, electricity became the primary source of power. It
was easier to use than water and steam and enabled businesses to concentrate power sources to
individual machines. Eventually machines were designed with their own power sources, making
them more portable.
This period also saw the development of a number of management programs that made it
possible to increase the efficiency and effectiveness of manufacturing facilities. Division of
labor, where each worker does a part of the total job, increased productivity. Mass production of
goods using assembly lines became commonplace. American mechanical engineer Frederick
Taylor introduced approaches of studying jobs to optimize worker and workplace methods.
Lastly, just-in-time and lean manufacturing principles further refined the way in which
manufacturing companies could improve their quality and output.
In the last few decades of the 20th century, the invention and manufacture of electronic
devices, such as the transistor and, later, integrated circuit chips, made it possible to more fully
automate individual machines to supplement or replace operators. This period also spawned the
development of software systems to capitalize on the electronic hardware. Integrated systems,
such as material requirements planning, were superseded by enterprise resources planning tools
that enabled humans to plan, schedule and track product flows through the factory. Pressure to
reduce costs caused many manufacturers to move component and assembly operations to low-
cost countries. The extended geographic dispersion resulted in the formalization of the concept
of supply chain management.
In the 21st century, Industry 4.0 connects the internet of things (IOT) with manufacturing
techniques to enable systems to share information, analyze it and use it to guide intelligent
actions. It also incorporates cutting-edge technologies including additive manufacturing,
robotics, artificial intelligence and other cognitive technologies, advanced materials, and
augmented reality, according to the article ―Industry 4.0 and Manufacturing Ecosystems‖ by
Deloitte University Press.
The development of new technology has been a primary driver of the movement to
Industry 4.0. Some of the programs first developed during the later stages of the 20th century,
such as manufacturing execution systems, shop floor control and product life cycle management,
were farsighted concepts that lacked the technology needed to make their complete
implementation possible. Now, Industry 4.0 can help these programs reach their full potential.
The Industrial Internet, also known as Industry 4.0, not only comprises the digitization of
horizontal and vertical value chains but will also revolutionize the product and service
portfolio of companies with the ultimate goal of better satisfying customer needs. The
potential uses of the Industrial Internet go far beyond the optimization of production
technologies. However, exploiting these opportunities requires considerable investment.
The topic therefore inevitably occupies a leading position on the agenda of directors and
managers of industrial companies.
Over the next five years, the industrial companies surveyed will invest, on average, 3.3%
of their annual revenues in Industrial Internet solutions. This is equivalent to nearly 50%
of the planned new capital investments and an annual sum of more than €140 billion.
These investments will have to be used along the entire value chain in order to achieve
maximum success. The companies expect that 86% of the horizontal and 80% of the
vertical value chains will have a high degree of digitization by 2020 and will therefore be
closely integrated.
The industrial sector is required to produce ever larger quantities using fewer raw
materials and less energy. The Industrial Internet allows higher productivity and resource
efficiency and thus creates the conditions for sustainable and efficient production. The
companies surveyed anticipate an average efficiency increase of 3.3% per year across all
industry sectors due to the digitization of value chains. This amounts to a total of 18% in
the next five years. They expect annual savings of 2.6% with respect to cost reduction.
The Industrial Internet will have a lasting effect on existing business models and will
particularly also Generate new, digital often disruptive business models. The focal
point of this trend comprises increasing customer benefits through a growing range of
value solutions (instead of products) and increased networking with customers and
partners. The special quality of the digital change lies in the rapid acceleration of the
speed of change. Disruptive innovations will also cause industry sectors like the
information and communications industry to sustainably transform within a short period
of time.
Companies have to master several challenges on the way to becoming a Digital 4.0
champion. The main focus is on high investment levels and often unclear business cases
for new Industrial Internet applications. Furthermore, sufficient skills to meet the needs
of the digital world must be ensured.
Binding standards must also be defined and tasks in the area of IT security have to be
solved. Policy-makers and industrial associations can help with these latter challenges in
particular, by advocating uniform industrial standards at a European or international level
and promoting efficient rules for data security and data protection
Digitization will have a permanent effect on our living and working environment. This
development offers the full range of opportunities for the industrial sector to expand its leading
global position. New, digital business models will expand the existing product and service
portfolio in order to ensure future growth in sales. The implementation of the Industrial Internet
represents a multi-year transformation process for the majority of companies, resulting in
significant changes to their value chains. The term Industry 5.0 has been introduced to the
research areas which are considered as next industrial revolution, but it is more systematic
transformation that includes impact on civil society, governance and structures, and human
identity in addition to solely economic/ manufacturing ramifications.
4. S. Wang, J. Wan, D. Li, C. Zhang, ―Implementing Smart Factory of Industrie 4.0: An
Outlook‖, International Journal of Distributed Sensor Networks Volume 2016, Article ID
3159805, 1-10.
5. MAK Bahrin, MF Othman, NH Nor, MFT Azli Industry 4.0: A Review on Industrial
Automation and Robotic Jurnal Teknologi (Sciences & Engineering), eISSN, 21803722
(2016), pp. 137-143
... Industry 4.0 has lead development of smart factory. Industry 4.0 has helped businesses to improve its productivity, efficiency, flexibility and agility towards the upcoming opportunities, helped in developing methods of collaborate working and knowledge sharing, it made compliance easier and makes better customer experience with the company [5,7,8,11]. ...
... The arrival and development of Industry 4.0 represent a revival similar to previous industrial revolutions in history [135]. The revolution in Industry 1.0 was the using complex machines to make work easier and faster instead of manual efforts. ...
Full-text available
Industrial IoT has special communication requirements, including high reliability, low latency, flexibility, and security. These are instinctively provided by the 5G mobile technology, making it a successful candidate for supporting Industrial IoT (IIoT) scenarios. The aim of this paper is to identify current research challenges and solutions in relation to 5G-enabled Industrial IoT, based on the initial requirements and promises of both domains. The methodology of the paper follows the steps of surveying state-of-the art, comparing results to identify further challenges, and drawing conclusions as lessons learned for each research domain. These areas include IIoT applications and their requirements; mobile edge cloud; back-end performance tuning; network function virtualization; and security, blockchains for IIoT, Artificial Intelligence support for 5G, and private campus networks. Beside surveying the current challenges and solutions, the paper aims to provide meaningful comparisons for each of these areas (in relation to 5G-enabled IIoT) to draw conclusions on current research gaps.
The fourth industrial revolution, Industry 4.0, is concerned with the ongoing changes and advances in the way of manufacturing and processes involved for the production of goods and their efficiency which is increasing rapidly with the advancement in the machine learning techniques and other technologies. Industry 4.0 encapsulates future industry development trends and techniques so as to achieve more advanced and intelligent manufacturing processes. Making use of smart, advanced, and automated machines, products are manufactured in more efficient, customized, and smarter way. It led a way of smart production lines which improved flexibility for manufacturers to experiment with different product designs and configurations—a strategic initiative introduced by the German government. It is a step toward transformation of industrial manufacturing through digitalization and exploitation of potentials of new approaches and technologies. With the access to usage data from the machine and product’s feedback, overall efficiency of production is improved. The effect of digitization and advancement in technology strives to make life simpler.
Full-text available
With the application of Internet of Things and services to manufacturing, the fourth stage of industrialization, referred to as Industrie 4.0, is believed to be approaching. For Industrie 4.0 to come true, it is essential to implement the horizontal integration of inter-corporation value network, the end-to-end integration of engineering value chain, and the vertical integration of factory inside. In this paper, we focus on the vertical integration to implement flexible and reconfigurable smart factory. We first propose a brief framework that incorporates industrial wireless networks, cloud, and fixed or mobile terminals with smart artifacts such as machines, products, and conveyors. Then, we elaborate the operational mechanism from the perspective of control engineering, that is, the smart artifacts form a self-organized system which is assisted with the feedback and coordination blocks that are implemented on the cloud and based on the big data analytics. In addition, we outline the main technical features and beneficial outcomes and present a detailed design scheme. We conclude that the smart factory of Industrie 4.0 is achievable by extensively applying the existing enabling technologies while actively coping with the technical challenges.
MFT Azli Industry 4.0: A Review on Industrial Automation and Robotic Jurnal Teknologi (Sciences & Engineering), eISSN
  • Mak Bahrin
  • N H Mf Othman
  • Nor
MAK Bahrin, MF Othman, NH Nor, MFT Azli Industry 4.0: A Review on Industrial Automation and Robotic Jurnal Teknologi (Sciences & Engineering), eISSN, 2180-3722 (2016), pp. 137-143