People have begun describing their cloud systems as "the fog." I get the feeling the joke is based on actual events. Are we" venting" gases into the atmosphere with our data during this digital era just like we did during the industrial age? Is it possible to simply throw our data in the cloud and expect a software application to analyze and organize it when we need it? But first, we must begin with an understanding of what the cloud can and cannot do, as well as knowing what is required to make the cloud an effective strategy for storing data that is easily accessed.
The heart of the electronics factory is in its' machines. However, even the lines and factories with the smartest and most versatile machines rely on intelligent and consistent support received by the central processes to reach their maximum capability. The heart of the electronics factory is in its machines. However, even the lines and factories with the smartest and most versatile machines rely on intelligent and consistent support received by the central processes to reach their maximum capability.
The catalyst for the now long-awaited Industry 4.0 revolution is the introduction of the IPC CFX (Connected Factory Exchange) standard for IIoT. This standard now enables everyone in the industry to get involved, examine their processes or products and to fully benefit from the new IPC CFX-fueled Industrial IoT environment.
The Cyber Physical System (CPS), Internet of Things (IoT) and Digital Twin are all central concepts in Industry 4.0, often used interchangeably in discussions about Industry 4.0 and smart manufacturing. Each refers to a representation of a piece of equipment in cyber space. Such representations are of central importance in Industry 4.0 and for smart manufacturing, since they provide access to real-time operational data of the represented equipment. Use of this data ranges from machine operational status and compiling important KPIs, like OEE, MTBF, MTBA, etc., to big data analytics and machine learning applications, such as predictive maintenance. It is therefore worthwhile to examine what each means and how they relate to each other.
For anyone currently considering investment in a modern digital manufacturing solution, inclusive of any form of discrete assembly manufacturing, it is imperative that expectations and requirements are redefined in the light of this new IIoT platform based digital MES technology, that is set to genuinely drive the Industry 4.0 Smart factory revolution.
In the first part of this three-part series, we learned how the top level of Manufacturing Execution Systems (MES) work in the factory to provide results against business goals and requirements, managing the flow of production for final products and sub-assemblies. In the second part, we took take a more detailed look into the deeper levels of MES, discussing other areas within the factory that MES manages, that enable the final production flow to work smoothly and effectively. In this last segment of the series, we finish by looking further into the levels of MES functionality that enables final production to work effectively. We then explore different types of MES and review the important aspects of MES to keep in mind when first implementing or when upgrading a basic MES that is already in place to a system with the latest IIoT digitalized technology.
In the first part of this three-part series, we learned how the top level of Manufacturing Execution Systems (MES) work in the factory to provide results against business goals and requirements, managing the flow of production for final products and sub-assemblies. We will now take a more detailed look into the deeper levels of MES, discussing other areas within the factory that MES manages, that enable the final production flow to work smoothly and effectively.
Manufacturing Execution Systems (MES) have been available on the market for quite some time now and for buyers at any stage of research, there are literally hundreds of MES options to consider. As the term “MES” tends to cover a very broad range of capabilities, it’s unlikely to find any two solutions that will offer the exact scope of functionality. This is especially true within just the last few years, given the rapid progress of digital technologies related to “Smart Factory” or “Industrial Internet of Things” (IIOT) initiatives. It’s therefore crucial for you to understand the basic principles behind MES so that it can be put to work for your organization’s requirements, instead of the other way around.
In this three-part blog series, we’ll break down the fundamentals concepts of MES so that regardless of where you’re at with your research, you’ll be equipped with some new tips and principles to incorporate into your knowledge base.
By now, we are all familiar with the concept of Industry 4.0, a popular business model that enables manufacturers to become faster, more efficient, and more flexible to respond to inevitable market changes. While traditional approaches to factory automation continue to be successful, they are often focused on specific production operations, leaving the critical operational level decision unaddressed or at best, open to interpretation. If we don’t get to it soon, someone else (or something else) will do it for us, and it may not be a human.
Many software systems in use in manufacturing today are holding the business to ransom. Well-meaning, mainly internally developed software utilities, have established a critical dependency on themselves. It appears that manufacturing could not work without these systems, yet on the flip-side, the operation also cannot easily progress to the next level of digital manufacturing. What does it take to acknowledge the past value and contribution of these systems, but now be able to break free and move on to the next generation of digital manufacturing tools?