Best of LinkedIn: Smart Manufacturing CW 05/ 06
Show notes
We curate most relevant posts about Smart Manufacturing on LinkedIn and regularly share key takeaways.
In this edition, the manufacturing landscape for early 2026 is defined by a decisive shift from isolated pilots to integrated, science-based Industrial AI ecosystems, highlighted by major partnerships between Siemens, NVIDIA, and Dassault Systèmes to create "Industrial World Models" and an "Industrial AI Operating System". The focus has moved beyond mere 3D modeling to "Digital Native" factories and physics-based Digital Twins that allow companies like Audi and Siemens to optimize production in the virtual world before physical implementation. While Agentic AI and software-defined automation are driving the vision of self-running plants industry leaders are simultaneously urging a return to fundamentals, prioritizing data integrity, business-problem solving, and workforce upskilling over empty "Industry 4.0" buzzwords to ensure measurable ROI. Furthermore, sustainability is becoming operationally critical, illustrated by Schneider Electric’s 100% renewable smart factories and innovations in supersonic flight, proving that efficiency and green goals are increasingly intertwined.
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Show transcript
00:00:00: This episode is provided by Thomas Allgaier and Frenus, based on the most relevant LinkedIn posts about smart manufacturing in calendar weeks O five and O six.
00:00:09: Frenus is a B to B market research company that supports enterprises across the smart manufacturing industry.
00:00:14: with the market, customer and competitive insights they need to navigate dynamic markets and drive customer centric product development.
00:00:23: Welcome to the deep dive.
00:00:25: We are looking at weeks O five and O six of twenty twenty six.
00:00:29: And you know, if I had to put a bumper sticker on what we're seeing, it'd be something like the end of pilot purgatory.
00:00:35: That's
00:00:36: a good way to put it.
00:00:36: Because we aren't just seeing press releases about future possibilities anymore.
00:00:40: We're seeing these massive structural changes.
00:00:43: Yeah, it's a fascinating, almost polarized landscape right now.
00:00:47: Now so.
00:00:48: Well, on one side, you have the futurists building what they call world models, which is mind-bending stuff we should get into.
00:00:53: Okay.
00:00:54: And on the other, you have the pragmatists, you know, practically screaming that our data is garbage and we need to stop buying tools we don't understand.
00:01:01: It's that tension, right?
00:01:02: The Star Trek future... versus the rusty clipboard reality.
00:01:06: Exactly.
00:01:07: So let's start with the Star Trek side, because the NVIDIA factor is just impossible to ignore in this batch of updates.
00:01:14: It feels like they're partnering with everyone, but the Siemens one, that's the one that really stood out.
00:01:19: Right,
00:01:19: and David Kau highlighted this in his analysis.
00:01:22: It's not just about Siemens buying chips from NVIDIA.
00:01:25: They are building what they call an industrial AI operating system.
00:01:30: And that phrase, industrial AI operating system, It just stops you in your tracks.
00:01:35: It does.
00:01:35: I mean, we think of an OS as Windows or iOS.
00:01:39: It manages files, opens apps.
00:01:41: What does an OS do for a factory?
00:01:42: Well, think about the fragmentation.
00:01:44: You've got design software over here, simulation software over there, production scheduling, the actual machines.
00:01:50: And
00:01:50: none of them really talk to each other fluently.
00:01:52: Right.
00:01:52: So David Cowb points out that this partnership aims to build a unified execution layer.
00:01:58: something that spans from the very first sketch of a product all the way to its operation.
00:02:03: Okay,
00:02:03: I think I follow.
00:02:04: But the key difference, and Cal was very specific on this, is moving from passive models to active decision engines.
00:02:12: Okay, so a digital twin.
00:02:14: right now, it usually just shows you data.
00:02:16: Yeah.
00:02:16: It's a dashboard that says, hey, this machine is getting hot.
00:02:19: Exactly, it reports the problem.
00:02:22: You're saying an industrial AIOS changes that.
00:02:25: Ideally, yeah.
00:02:26: Instead of just reporting, I am hot, the system actively manages the thermal load, adjusts the production schedule, maybe even orders a maintenance part.
00:02:34: It's
00:02:34: closing the loop.
00:02:35: It's the difference between a weather app telling you it's raining and a smart home system that automatically closes your windows.
00:02:40: I see.
00:02:41: But that requires a level of trust in the AI that, well, I'm not sure we have yet.
00:02:45: And that brings up a crucial point from Alisa Prisoner-Levine and Tobias Berenstrow.
00:02:50: About the Dessault Systems Partnership.
00:02:51: Yes, also with NVIDIA.
00:02:53: They use a very specific phrase, science-based AI.
00:02:57: And this is probably the most important technical concept in this whole batch of research.
00:03:01: We're all used to things like Chad GPT, right?
00:03:04: You ask it a question, and it predicts the next likely word.
00:03:08: It's basically guessing what sounds right.
00:03:10: Which is why it sometimes hallucinates and tells you two plus two five if it's having a bad day.
00:03:15: Exactly.
00:03:16: And that is fine for a marketing email.
00:03:18: It is not fine if you're managing pressure valves in a chemical plant.
00:03:22: You can't read a factory on probabilistic guesses.
00:03:24: You
00:03:24: can't.
00:03:25: And that's what prisoner Levine and Barron Strouch are arguing for with industry world models.
00:03:31: These aren't just trained on text.
00:03:32: They are trained on the laws of physics, fluid dynamics, material.
00:03:38: Okay, so let me see if I have this right.
00:03:40: A standard AI looks at a sentence and asks, does this look like good English?
00:03:45: A science-based AI looks at a pipe design and asks, does this violate the laws of physics?
00:03:51: That's the perfect way to put it.
00:03:52: It constrains the AI with reality.
00:03:54: So if the model generates a solution that would cause a structural failure, the physics engine just rejects it instantly.
00:04:01: So you get the speed of AI, but the safety of physics.
00:04:04: That's the goal.
00:04:05: That sounds incredibly powerful, but also... incredibly expensive, computer-power-wise.
00:04:09: Oh, it requires massive compute, which brings us right to Janina Ballner's update on what's happening in Munich.
00:04:16: Right.
00:04:16: Germany isn't just watching this happen.
00:04:18: No,
00:04:18: they're making a sovereignty play.
00:04:20: They've launched the first industrial AI factory.
00:04:23: I saw the numbers in Ballner's post.
00:04:25: Up to ten thousand GPUs.
00:04:27: That's basically a supercomputer for industry.
00:04:30: It is.
00:04:31: But the why is more interesting.
00:04:33: Ballner points out that for German industries automotive, Chemical data is the crown jewel.
00:04:39: Mercedes isn't going to upload its deepest trade secrets to a public cloud in California.
00:04:43: So this meeting facility is like a walled garden for AI development.
00:04:47: It's a sovereign bunker.
00:04:49: It lets European companies access that Silicon Valley level compute power.
00:04:53: To train these world bottles we just talked about.
00:04:55: But without the data ever leaving their control.
00:04:58: It lowers the barrier to entry while keeping the IP lawyers happy.
00:05:01: So the infrastructure is finally catching up to the vision.
00:05:04: But having the compute as one thing, having a valid model to run on it is another.
00:05:09: Which leads us directly into our second theme, virtual factories.
00:05:12: And I'm so glad Steven Spasic said what he said in his post.
00:05:16: Stop calling your three D model a digital twin.
00:05:19: It needed to be said.
00:05:20: I feel like every marketing department just labeled their CAD files digital twins and called it a day.
00:05:26: Spasic is drawing a hard line.
00:05:28: He argues a three-D model is just geometry.
00:05:30: It looks nice, but it's static.
00:05:33: A true digital twin has to include machine kinematics, physics, and real data.
00:05:38: It's about constraints again, isn't it?
00:05:40: A three-D model doesn't know that a robot arm has weight.
00:05:43: Precisely.
00:05:44: Or that if you swing it too fast, momentum will make it overshoot.
00:05:47: If your digital model lets you do things that are physically impossible, it's not a twin.
00:05:52: It's
00:05:52: a video game.
00:05:52: It's a video game, and it's useless for real operations.
00:05:56: And when you get it right, When it's not a video game, the results are just staggering.
00:06:01: Roland Locker shared that case study on the Siemens Nanjing plant, a digital native factory.
00:06:05: Meaning it was born digitally before it was born physically.
00:06:08: They simulated everything, production lines, material flow before laying a wringled brick.
00:06:13: The numbers Locker quoted were, I mean, a seventy-eight percent reduction in lead time.
00:06:17: You usually fight for two percent or three percent.
00:06:20: Seventy-eight percent is a different business model entirely.
00:06:24: Think about what that means.
00:06:25: You get a product to market in a fraction of the time.
00:06:28: Lausher also noted a twenty-eight percent reduction in CO-II.
00:06:32: That's
00:06:33: the power of debugging reality before you build
00:06:35: it.
00:06:35: You don't have to tear down a wall because a forklift can't fit.
00:06:38: You fixed all that in the software.
00:06:40: And it scales down too.
00:06:42: It's not just for billion-dollar plants.
00:06:44: I saw Cervando Cedillo's post about... bros, the auto supplier.
00:06:48: Right, they're using plant simulation for buffer sizes.
00:06:51: It sounds boring, but it's so critical.
00:06:53: It sounds boring until you run out of cash.
00:06:55: Inventory is money sitting on a shelf.
00:06:57: Too big, you waste capital.
00:06:58: Too small, the whole line stops.
00:07:00: So Cedillo shows how Bros runs what-if scenarios.
00:07:04: They crash the system virtually to see if the buffers hold up.
00:07:07: They're stress testing the business logic.
00:07:09: Then
00:07:09: you have Bozana Eminin and Armand Berenclaw taking it down to the absolute micro level.
00:07:14: CNC digital twins.
00:07:15: This is where you run the specific machine code on a PC, right?
00:07:19: Exactly.
00:07:20: High-end CNC machines are incredibly expensive.
00:07:22: The materials are pricey.
00:07:24: You do not want to press start and watch the tool crash.
00:07:27: enabling operators to run the exact production code on a virtual controller.
00:07:32: You catch the collision in the software.
00:07:34: Not with a fifty thousand dollar spindle replacement.
00:07:36: Right.
00:07:37: So we have the God view of the factory, the traffic control view of the flow, the pilot view of the machine.
00:07:44: The tech stack is incredible.
00:07:45: Right.
00:07:46: But, and there's always a but.
00:07:48: Here comes the reality check.
00:07:50: The reality check.
00:07:51: Not everyone is drinking the Kool-Aid.
00:07:53: Chacobo Lorette-Casal had a post that went absolutely viral.
00:07:56: He called industry four point oh the biggest fraud of the decade.
00:08:00: It
00:08:00: was provocative for sure.
00:08:02: But if you strip away the anger, was he wrong?
00:08:06: I don't know.
00:08:06: What do you think?
00:08:07: I don't think he was.
00:08:08: He wasn't saying the technology doesn't work.
00:08:09: He was saying the implementation is often fraudulent.
00:08:12: His argument was that companies are spending millions on software and sensors that nobody looks at.
00:08:18: It's shelf wear.
00:08:19: It's the shiny toy syndrome.
00:08:21: Executives have FOMO fear of missing out.
00:08:24: They want an AI strategy.
00:08:26: But Casal argues that if your underlying process is inefficient, digitizing it just makes the inefficiency faster.
00:08:32: You're buying a Ferrari to deliver pizza when a moped would have done the job better.
00:08:37: And cheaper.
00:08:38: This connects perfectly to that story.
00:08:40: Muserat Hussein shared, a salesperson who refused to sell.
00:08:44: I love that.
00:08:45: It's a man bites dog story in the corporate world.
00:08:48: Totally.
00:08:49: Hussein had a client begging for an AI module.
00:08:52: Give us the AI.
00:08:53: But he looked at their data infrastructure and realized he
00:08:56: was a mess, not standardized, not clean.
00:08:59: Right.
00:09:00: So he told them, if I sell you this, it will fail.
00:09:03: It's the classic garbage and garbage out.
00:09:05: You feed an AI bad data, it gives you bad decisions with high confidence, a dangerous combination.
00:09:10: So
00:09:11: he walked away from the revenue.
00:09:12: That highlights the real barrier.
00:09:14: It's not compute power.
00:09:15: We have ten thousand GPUs in Munich.
00:09:17: It's the basic hygiene of data management.
00:09:19: And the basic hygiene of people management.
00:09:21: Jeff Winter brought some Deloitte data to the table that was pretty damning on this.
00:09:26: This is the idea that we're over-investing in tech and under-investing in people.
00:09:29: the data supports it.
00:09:31: Winters show that while investment in operational systems is sky-high, the maturity of human capital is the lowest part of the stack.
00:09:38: We're asking workers to bridge the gap.
00:09:41: When the smart system fails, we rely on the heroic efforts of an operator to figure it out.
00:09:46: We're asking people to work around broken systems.
00:09:50: Winters' point is that you can't have twenty-first century tech and twentieth century training.
00:09:55: Sean C. had a great insight on this for the auto industry, moving from a component mindset to a learning organization.
00:10:02: It's a huge cultural shift.
00:10:04: In the old days, if you wanted a better car, you bolted on a better part, a better carburetor.
00:10:09: The muffler guy didn't need to talk to the carburetor guy.
00:10:12: But with software-defined vehicles.
00:10:13: Everything is integrated.
00:10:15: A change to the battery software affects cooling, range, torque, everything.
00:10:19: You can't just bolt on a chain.
00:10:21: So
00:10:21: C. is saying the organizations are still structured like the old cars?
00:10:25: in silos.
00:10:25: And in many cases, the org chart is the bottleneck, not the technology.
00:10:29: Speaking of technology, I want to pivot.
00:10:32: We've talked software, data, culture.
00:10:35: But there was some hardware innovation that was just literally reshaping how we make things.
00:10:40: It's interesting.
00:10:41: Hardware is usually slow to evolve.
00:10:43: Tobias Claus highlighted that MESH technology.
00:10:46: This was the construction tech.
00:10:47: I saw the video.
00:10:48: It looked like a robot weaving in midair.
00:10:50: Essentially, yeah.
00:10:52: Rebar concrete reinforcement is heavy, manual work.
00:10:55: MESH uses robotic arms to create three-D reinforcement cages automatically.
00:11:00: And because it's a robot, it doesn't just have to make a square grid, right?
00:11:03: Right.
00:11:03: It allows for complex organic geometries, curved walls, twisting pillars, shapes that would be astronomically expensive to do by hand.
00:11:13: It's mass customization for concrete.
00:11:15: Yeah.
00:11:15: And Daniel Kieber had a similar example with metal forming, Makina Labs.
00:11:19: This was one of my favorites, dialess forming.
00:11:21: Okay, for anyone who isn't a metallurgist, why is dialess such a big deal?
00:11:25: Well,
00:11:25: normally, to make a car fender, you machine a massive block of steel into a molded die.
00:11:29: It costs a fortune.
00:11:31: If you want to change the fender shape by an inch, you throw the die away and start over.
00:11:35: Great for a million cars, terrible for fifty.
00:11:37: Exactly.
00:11:38: Makina Labs uses two robots, one on top, one on bottom, to physically shape the metal sheet.
00:11:44: Like a Potter-shaping clay.
00:11:46: So there's no mold at all.
00:11:47: No mold.
00:11:48: It's software-defined shaping.
00:11:49: You want a new fender, you just change the code.
00:11:51: It eliminates fixed tooling costs.
00:11:54: That is the definition of agility.
00:11:56: But the hardware story that really blew my mind, and connects back to our first topic, was from Robert Little about Boom Supersonic.
00:12:04: Ah, the return of Supersonic flight.
00:12:06: Well, yes, a fast jet is cool.
00:12:08: Yeah.
00:12:09: But it was what they're doing with the engine that was so interesting.
00:12:13: The symphony engine, it's a brilliant pivot.
00:12:15: They realize a jet engine is just an incredibly efficient power generator.
00:12:19: And who needs massive amounts of stable power right now?
00:12:21: Data centers, the AI factories we talked about at the start.
00:12:24: Exactly.
00:12:25: Boom is monetizing their engine tech to power AI data centers before the plane even carries a single passenger.
00:12:31: That really connects everything, doesn't it?
00:12:32: The AI needs the data centers, the data centers need the power, the aerospace manufacturers provide it.
00:12:38: and they probably used a digital twin to design the engine.
00:12:41: It's a closed loop.
00:12:43: And just to cap it off, we have to mention humanoids.
00:12:45: Alexander Dronovic shared how Siemens is approaching
00:12:48: this.
00:12:49: Are we finally seeing C-IIIPO on the assembly line?
00:12:52: We
00:12:52: are seeing the simulation of C-IIIPO.
00:12:56: Dronovic's point was crucial.
00:12:58: Don't just buy a walking robot.
00:13:00: Simulate it first.
00:13:01: Back to the digital twin again.
00:13:02: Always back to the twin.
00:13:04: Humanoids are bipeds.
00:13:06: They have to walk on uneven floors, step over cables.
00:13:10: You need to simulate that to see if the robot will actually be useful.
00:13:13: Or if we'll just trip over a pallet and break something expensive.
00:13:16: Exactly.
00:13:17: Simulate the robot in the virtual factory before you let it loosen the real one.
00:13:21: You know, looking at all these themes, a picture starts to form of where we are in early twenty-twenty-six.
00:13:26: We are definitely maturing.
00:13:27: Moving past that pilot purgatory, the tools, like the industrial AI operating system, are becoming foundational.
00:13:34: But, as Jacobo Loret-Casal and Museratu Sein reminded us, the tech is useless without the unglamorous work of cleaning data and fixing processes.
00:13:44: And changing how we manage people, that's the lingering question from Jeff Winter's data.
00:13:49: We can build the perfect virtual factory, but we still need to staff it with real people who need to be empowered.
00:13:56: That's the big takeaway for me.
00:13:58: The tech is ready.
00:13:59: The question is whether our organizations and our data are ready to handle it.
00:14:03: I think that's the challenge for the rest of twenty twenty six.
00:14:06: Closing that gap.
00:14:06: A lot
00:14:07: to chew on.
00:14:07: It's going to be an interesting year.
00:14:09: Indeed.
00:14:10: If you enjoy this episode, new episodes drop every two weeks.
00:14:13: Also check out our other editions on digital construction and digital power tools.
00:14:17: Thank you for listening.
00:14:18: Make sure to subscribe so you don't miss the next one.
00:14:20: We'll see you then.
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