Five reasons for applying machine learning in manufacturing
by Lantek
Machine Learning
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The Spanish industrial sector is facing an enormous challenge in order to become more competitive in the midst of digital transformation and in a market in which new consumer habits are pushing us towards a new form of manufacturing. The client in the digital era wants THEIR order (in capital letters because they don’t want what’s standard, they want something that’s customized) and they want it in record time, which requires us to be more streamlined and fast.
But… how can we do this without the costs escalating and whilst maintaining the quality of both the product and the service? The challenge depends on implementing an innovative tool: Machine Learning or the Automatic Learning of machines.
This Industry 4.0 enabler opens up a wide range of opportunities in the production chain, increasing productivity, reducing costs and gaining in efficiency using the analysis of the data that we generate and algorithms which optimize the production chain in real time. Let’s take a close look at the advantages offered by Machine Learning in advanced manufacturing:
Data analysis. Digitalization is no longer a matter concerning one exclusive division, it must become a strategy which can be applied in all departments. This requires computerizing and sensorizing the immense amount of data that we produce. From then on, incorporating it into all areas in order to have a vision of the whole and, thus, get the most out of it and be able to make better decisions. In this way, the machines learn and offer responses for any setting in real time. For example, finding out the status of the machines and, if necessary, redistributing manufacturing in order to avoid losing time; checking the capacity of the warehouse to satisfy the material requirements of the orders; visualizing the progress of orders in order to meet delivery times…
Prediction. The historical record of data allows the system to think ahead. In terms of production: to predict new orders from habitual clients, identify new consumer patterns in order to increase sales or adapt the workload to match the volume of orders. All of this could scale to other areas. In terms of the inventory, it helps us to better manage the stock, and foresee a possible shortage. This capacity to predict can be extended to other processes such as maintenance, in such a way that faults can be detected before they occur and revisions can be programmed in accordance with demand.
Automation. Machines learn from incidences from the real world (unscheduled stops, urgent orders, lack of workers…) From then on, many of the responses that they offer can be automated, which makes the presence of an operator at the plant no longer necessary, meaning that they can dedicate their time to other activities which create value. Additionally, the machines can be taught to identify poor quality patterns, thus reducing reworking. As we can see, automation offers great agility and speed in production, whilst people can direct their focus to other areas.
Prescription. This innovative tool also visualizes the capacity of the assembly line in a virtual manner. In this sense, if the system detects that the machines will not be able to handle a volume of work within the planned deadlines, it evaluates the possible delays of other orders and offers alternatives or, in some cases, automates them. It can also prescribe rates. By having all of the information in real time, the system recommends prices, taking into account the expenses (cost of the raw material, energy…) and the demand in such a way that it offers the appropriate margin.
Customization. Mass production has become of secondary importance. Á la carte orders are being demanded and with Automatic Learning, once again, having one person in charge of customization will not be necessary. The machines will be capable of doing it with maximum precision and with fast production. What’s more, this implies a new business model for the industry, beyond that of the manufacturing and sale of the product. That is to say, the possibility of offering services surrounding an article, such as the customization of said article.
Let us, then, support these disruptive tools, not only in order to avoid losing competitiveness, but also to position Spain as one of the reference European countries in terms of digitalization.
The Digital Factory is much more than a concept or an increasingly widespread expression, it’s a methodology aimed at the 21st-century company, a company that simply must be linked to technology and digitization.
Imagine a sheet metal factory. Hundreds of processes are taking place at the same time and all of them generate (or can potentially generate) a huge amount of invaluable data. That data can be processed and fed into the data analysis pipelines that Lantek is developing to provide advanced services targeted at improving the efficiency and performance of factories. Some of those advanced services are already in the market, like Lantek Analytics. Soon that data will also feed machine learning algorithms that will revolutionize the way we work and interact with sheet metal software.
Material waste and a lack of agility in nesting or the nesting of parts are two of the most common problems faced by metal processing companies which slow down the company’s response time for its clients and make the process more expensive. This is due to them not using the appropriate technology in order to fully exploit each piece of sheet metal during the cutting process and/or the fact that this process is completed manually or using slower solutions. Equally, the work of the production engineer mustn’t be knocked as they are experts in the optimization of nesting and machining; the maximization of the margin for each production order received depends on their intervention.