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Industrial Automation
Industrial automation is changing manufacturing faster than anything else in the last 50 years.
Across the production lifecycle, from the design table to the factory floor, production activities are becoming increasingly intelligent. Manufacturers are harnessing intelligence to:
- Speed up production
- Cut waste
- Build safer, stronger products
The global industrial automation market reached USD 215.2 billion in 2025 and is expected to continue its double-digit growth trajectory.
Here’s the kicker:
Automation these days does not solely involve robotic arms welding automobile frames. Finite element analysis (FEA), artificial intelligence, and Internet of Things (IoT)-enabled machines are influencing how products are manufactured today.
Engineers are able to design, test, and manufacture parts using all these powerful tools with unparalleled precision.
This article explains just how everything is coming together.
What you’ll find out:
- What Is Industrial Automation in Manufacturing?
- Why Finite Element Analysis Sits at the Centre
- Top Technologies Driving the Change
- Real-World Benefits on the Factory Floor
- Where the Industry Is Heading
What Is Industrial Automation in Manufacturing?
Industrial automation refers to technology used to control manufacturing processes with minimal human intervention.
Automated Production Systems can be imagined as thinking machines, software, sensors, and robots collaborating to produce goods rapidly and reliably. They include everything from:
- Designing new parts
- Running production lines
- Quality control checks
- Packaging
- Shipping
The goal? To produce better products faster and at a lower cost.
And it matters because… The median share of manufacturers that will have highly automated operations is projected to more than double, rising from 18% to 50% by 2030.
In just a few years, that is a huge change.
Why Finite Element Analysis Sits at the Centre
Every part is tested before it is ever manufactured. And these days, that testing is done virtually with finite element analysis.
Here’s how it works:
Finite element analysis divides a part or assembly into small elements. Stress, heat, vibration, or fluid flow are analyzed on each element. The software reconstructs the model, showing how the part will perform in reality.
Why is this such a big deal?
It means engineers can identify design problems BEFORE they spend money creating prototypes.
Couple finite element analysis with intelligent automation systems design, and you have a closed-loop process where every component is verified in software, then sent to automated machines that produce the part perfectly every time.
The result is:
- Less waste
- Fewer recalls
- Faster time to market
- Stronger, more reliable products
It’s the perfect handshake between digital design and physical production.
Top Technologies Driving the Change
Industrial automation is not one single technology. It’s an entire stack of technologies that work together. Here are the top technologies defining the factory of 2026.
Industrial Robots and Cobots
Robots have been around factories for many years. However, the newest generation is much more capable.
In 2024, 542,000 industrial robots were installed globally. That’s more than twice as many as a decade earlier.
The growth is being driven by:
- Smaller, smarter cobots that work next to humans
- Decrease in payback time (>5 years to ~1.3 years)
- Better sensors and AI integration
Artificial Intelligence and Machine Learning
Artificial Intelligence (AI) powers today’s automation. AI can do the following by using enormous amounts of industrial data:
- Predict equipment failures before they happen
- Optimise production schedules
- Spot defects in real time
- Reduce energy use
This is massive. Recent industry research indicates that 95% of manufacturers will be investing in AI or machine learning technologies in the next five years.
Industrial IoT and Edge Computing
Industrial Internet of Things (IIoT) refers to the networking of every device, sensor, and piece of equipment present on the shop floor.
Edge computing then analyzes that data where it’s generated. Instead of transmitting all that data somewhere else to be analyzed, processing occurs locally. Which results in:
- Faster response times
- Less downtime
- Better safety
- Real-time quality control
It’s like giving the factory a nervous system that actually thinks.
Digital Twins and Simulation
A digital twin is a virtual replica of an actual machine or product. It exists simultaneously with the original, updating as circumstances evolve.
Engineers use digital twins to:
- Test new ideas without stopping production
- Predict wear and tear on parts
- Optimise performance in real time
Paired with finite element analysis, digital twins allow manufacturers to visualize conditions (and potential conditions) throughout the entire production process.
Real-World Benefits on the Factory Floor
So what does all this actually mean for a manufacturer? The benefits are massive.
Faster Product Development
Finite element analysis and simulation cut design cycles from months to days. Hundreds of virtual prototypes can be tested in the time it once took to build one physical prototype.
Lower Costs
Less waste. Less rework. Less downtime.
Automated lines operate 24 hours a day with significantly fewer errors. Paired with finite element analysis during design, manufacturers can dramatically reduce material and labor expenses.
Higher Quality Products
Automated quality control identifies defects that would be missed by human inspectors. Vision systems, sensors, and AI collaborate to:
- Flag defects instantly
- Adjust machine settings on the fly
- Keep tolerances within microns
That’s the level of consistency buyers expect now.
Better Worker Safety
Automation removes people from hazardous work. Robots lift heavy loads, perform welding, and operate in hazardous environments while workers handle higher-value tasks.
Where the Industry Is Heading
Industrial automation isn’t slowing down. If anything, it’s about to speed up.
Here’s what to expect:
- More AI-native robots that learn on the job
- Wider use of finite element analysis in everyday design
- Tighter integration between cloud and edge computing
- A stronger focus on energy efficiency and sustainability
- Wider adoption among small and mid-sized manufacturers
Winning OEMs of the future will be those who commit to automation, not merely for labor cost savings but for the flexibility and innovation that it enables.
Final Thoughts
Industrial automation isn’t just making factories more productive. It’s revolutionizing the way manufacturers approach design, production, and quality.
Finite element analysis is right at the core of that. Allowing engineers to simulate, validate, and optimize parts in software enables intelligent automation from the initial sketch.
The path forward is clear:
- Invest in smart design tools like FEA
- Build automated, connected production lines
- Use AI to learn from every product that gets made
The factories of tomorrow are under construction right now. The only uncertainty is whether you will be inside them or watching from the outside.