For over two decades, IT has completely transformed various sectors of the economy, such as finance, telecommunications, and healthcare. Industrial sectors (e.g., manufacturing, oil & gas, energy and mining) have been no exceptions to this rule: IT systems such as Enterprise Resource Planning (ERP) and Manufacturing Execution Systems (MES) have been introduced in industrial plants in order to boost production planning and optimization, while at the same time increasing automation and reducing production costs. During the last couple of years, the operation of these IT systems has enhanced based on data and information about physical processes, thanks to their interconnection with automation devices, machines and Operational Technology (e.g., PLC (Programmable Logic Controllers) and DSC (Distributed Control Systems)). The integration of IT systems with machines and automation devices is empowered by the rise of the Industrial Internet-of-Things (IIoT) paradigm, which transforms industrial plants into large-scale Cyber-Physical Systems (CPS) i.e. systems that comprise both a cyber and a physical part. IIoT and CPS systems are among the main enablers of the fourth industrial revolution (Industry 4.0), which is currently disrupting the operations of industrial organizations.
The Industry4.0 revolution is motivated by the need to create flexible and hyper-efficient plants that are able to produce a great variety of products with only a marginal increase in production cost. This is the foundation of mass-customization, which is one of the most prominent business drivers of Industry 4.0. Other business drivers include the need to achieve excellent production quality, through predicting and proactively alleviating inefficiencies and defects. In this context, one of the most prominent apps of Industry4.0 is predictive maintenance, which aims at anticipating when machines failures will occur, as a means of scheduling maintenance and repair activities in ways that reduce unplanned downtime and optimize equipment usage and efficiency.
In order to implement these use cases, it is not sufficient to interconnect machines and automation devices with IT systems based on IIoT. Rather, there is also a need for acquiring and processing large volumes of data from various sources, including sources with very high ingestion rates. To this end, Big Data and Artificial Intelligence technologies (AI) needed to be deployed, including predictive analytics that enables the timely identification of machine failures and defect patterns. Furthermore, cloud and High-Performance Computing (HPC) technologies are also used in order to provide access to the storage and computing capacity needed for running Big Data and AI applications. In several cases, Industry4.0 applications are also deploying Virtual Reality (VR) and Augmented Reality (AR) interfaces in order to enable workers to interact with machines in a highly ergonomic way that leverages cyber-representations created based on digital data from machines and devices. IIoT, Big Data, AI, cloud computing, HPC and AR/VR technologies are therefore considered as the digital enablers of the fourth industrial revolution.
One of the main implications of the digitalization of industrial processes in Industry4.0 is that human intervention is radically reduced as a means of eliminating error-prone processes. As a prominent example, several laborious tasks are nowadays carried out by industrial robots, which are gradually replacing human workers on the shop floor. This is the case with some picking, packing and assembly tasks in high tech industries. As another example, machines are able to predict their remaining useful life (RUL) as a means of proactively indicating their maintenance requirements and scheduling relevant maintenance tasks. Moreover, there are production lines that can be automatically (re)configured to produce a certain type of product based on information stemming from supply chain management or e-commerce systems.
The expanded deployment of IT-driven automation systems in industrial organizations will gradually lead to fully autonomous industrial plants. Autonomous plants will operate without any human intervention, much in the same way self-driving cars will operate without a driver. The role of human workers will become a supervisory one, which means that human workers will be in charge of configuring the plant and ensuring that things work as expected. While we are still far from realizing the vision of a fully (100%) autonomous plant, the following high-level roadmap is envisaged:
While fantastic, the vision of autonomous plants is already raising significant socio-economic concerns. The replacement of human workers with robots and intelligent machines will make thousands of redundant workers worldwide. Likewise, millions of workers will have to reconsider the way they work, as they will realize a shift from laborious tasks to supervisory roles. Therefore, the rise of autonomous plants is expected to create needs for new social contracts, which will support plant workers in their reskilling and adaptation to new work conditions. Moreover, there will be a need for new policies that will alleviate the plant workers’ talent gap on digital technologies, which is a key prerequisite for their successful engagement in Industry4.0. Finally, a cultural shift is required, including a change in the way workers and plant operators approach Industry4.0 applications and services.
The fourth industrial revolution has just started to showcase its benefits. However, its full potential will be realized in a timeframe of four to five decades. The ultimate vision of Industry4.0 is to enable fully autonomous plants that operate without errors and in an optimal and cost-effective way. Autonomous plants will integrate best of breed digital technologies, including advances in IIoT, Big Data, and IIoT. Nevertheless, the realization of this vision is dependent not only on technical and technological developments but also significant investments in new processes and other complementary assets such as education and training. The roadmap towards autonomous factories, yet challenging, is a proof that we are living in very interesting times.
Cobots: Robot Human collaboration for Industrial Applications
How CIOs can track and reduce carbon footprint to meet sustainability goals
Partner Ecosystems in the Industry 4.0 age
The Path to Supply Chain Resilience during the COVID19 Era and Beyond
Smart Manufacturing: Meeting Global Demand for COVID19 Products
Next-Gen Resilience: Can companies deal with large-scale disruptions?
Technology Enablers of Manufacturing-as-a-Service
The Art & Science of Estimating User Stories Cost
Embedded Finance: The basics you need to know
Five Tips for a Successful ChatGPT Strategy
We're here to help!
No obligation quotes in 48 hours. Teams setup within 2 weeks.
If you are a Service Provider looking to register, please fill out this Information Request and someone will get in touch.
Outsource with Confidence to high quality Service Providers.
If you are a Service Provider looking to register, please fill out
this Information Request and someone will get in
Enter your email id and we'll send a link to reset your password to the address
we have for your account.
The IT Exchange service provider network is exclusive and by-invite. There is
no cost to get on-board;
if you are competent in your areas of focus, then you are welcome. As a part of this exclusive