The act of “putting out a fire” is associated with resolving an urgent problem. Afterward, we worry about the cause, the consequences, and what knowledge we can gain, or so we believe. Quite frequently, this next step is replaced by handling and putting out the next fire. The digital factory provides us the ability to prioritize quality “hot-spots” that require handling. However, in world-class organizations, we must ensure that we complete the additional step and do more than extinguish the flames.
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.
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.
When done wrongly, it is one of the most expensive, confusing, distracting, valueless wastes of time that manufacturing is ever required to do, but when done properly, it can be the one thing that saves the life of a manufacturing business, which can happen in several different ways. Traceability, in this new age of digital manufacturing, has never been so inexpensive, and with the recently increasing ingress of counterfeit materials, never more important.
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.
As the next wave of flexible, more efficient, and more affordable factory automation options hits the market, the use of Automated Guided Vehicle (AGV) robots for lean manufacturing on the shop floor is becoming more common. Business leaders looking to stay on top are investing heavily in next generation technologies, combining the use of robots with their Manufacturing Execution Systems (MES) & Warehouse Management Systems (WMS) to reduce costs, increase throughput, improve worker safety, and enable complete traceability.
In this blog post, we cover highlights from a recent webinar with Aegis Software and Vecna Robotics: Breaking Down Islands for Lean Manufacturing. Read on to find out how leading manufacturers are creating a truly adaptive and totally visible factory with AGV, MES systems and WMS together with lean manufacturing principles.
Today’s shop floor is a highly-complex, continually-shifting environment. A recent study by Aberdeen Group polled today’s best-in-class manufacturers and found that the top reported pressures of modern manufacturing include:
• Differentiation while still improving quality (39%)
• The flexibly to respond to business demands (36%)
• Compliance with current and future industry regulations (27%)
While an Enterprise Resource Planning (ERP) system can solve challenges in areas such as capacity planning, inventory management, and business financials, today’s manufacturing environment requires much more than an ERP system alone — more flexibility, more data, and more connectivity.
Every aerospace manufacturing organization needs a quality system. The differentiator is how readily one can react to a non-conformance and how frequently report their quality metrics. In absence of MES, reporting is purely historical and is often available too late to take action on its findings. MES enables non-conformances to be addressed in the present and minimize their potential impact.
Manufacturers like you face critical demands to maintain regulatory compliance while also driving value for your customers. Moving from a manual tracking system to an automated MES provides complete quality control plus the flexibility for you to respond to changes in real time.
But what if your operation isn’t quite ready for an entire enterprise-wide MES system?
One manufacturer who faced this exact challenge is K2 Energy, a leading supplier of lithium-ion battery modules.