Can you transform a global network without visiting a single site?

 As businesses expand, managing thousands of network devices across distributed locations becomes increasingly complex, demanding greater automation, visibility, and reliability.

In this episode of HFCL Time Machine, we explore how IO by HFCL helped Thyssenkrupp Materials Services modernize its enterprise network with open networking, high-performance Wi-Fi 6, and zero-touch provisioning, creating a future-ready infrastructure that simplifies deployment, streamlines management, and supports seamless global operations.

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Transcript

SPEAKER_01 0:02

Welcome to HFCL Time Machine. Past, present, future, all connected. Let's step into today's chapter, where we explore how Thyssencrup Material Services transformed its global network with zero touch provisioning and open networking, and what it means for the future of industrial connectivity, automation, and intelligent enterprise operations.

SPEAKER_00 0:26

And uh I have to say, it is quite a monumental transformation. Truly massive.

SPEAKER_01 0:31

Massive is almost an understatement, actually. I mean, to put that sheer scale into perspective for you, the listener, we are talking about a company that distributes over 10 million tons of raw materials every single year.

SPEAKER_00 0:43

Why? Steel, non-ferrous metals, plastics. Trevor Burrus, Jr.

SPEAKER_01 0:46

Exactly. Just think about that volume. If you think about it, that is like uh dismantling the entire Golden Gate Bridge, shipping it piece by piece across 40 countries, and doing that 12 times over every single year.

SPEAKER_00 0:58

Aaron Powell Oh, wow. That is a brilliant way to visualize it.

SPEAKER_01 1:00

Right. And right in the middle of this colossal logistical ballet, they decided to completely rip out and replace their digital nervous system.

SPEAKER_00 1:08

Which is, you know, an incredibly complex engineering puzzle. I mean, doing that without grinding those heavy-duty operations to a complete halt, it is extremely difficult.

SPEAKER_01 1:17

Aaron Powell It is the ultimate risk, isn't it?

SPEAKER_00 1:20

Absolutely. Because see, we are not just talking about upgrading a corporate server room over a long weekend. We're looking at uh over 150 warehouses, 30 processing centers, and 50 corporate offices.

SPEAKER_01 1:34

All spread across multiple continents.

SPEAKER_00 1:36

Aaron Powell Exactly. It is a global footprint.

SPEAKER_01 1:38

Aaron Powell, which fundamentally throws a massive spanner in the works for any traditional IET deployment. I mean, upgrading a corporate office network is mostly about uh dodging a few cubicles and making sure the printers stay online. Trevor Burrus, Jr.

SPEAKER_00 1:50

Right. The stakes are quite low in a standard office.

SPEAKER_01 1:52

Aaron Powell But doing this in an industrial setting, particularly one that handles millions of tons of steel and plastics, introduces physical variables that just break standard networking equipment.

SPEAKER_00 2:02

Oh, 10%. Yeah. The ground reality of Thysenkreps facilities is inherently hostile to delicate electronics.

SPEAKER_01 2:09

Aaron Powell Hostile is a good word for it. Let's paint that picture for the listener.

SPEAKER_00 2:12

Aaron Powell Sure. So these processing centers are basically chalk a block with thick metallic dust suspended in the air.

SPEAKER_01 2:19

Just floating everywhere.

SPEAKER_00 2:20

Trevor Burrus Everywhere. And then you have severely fluctuating humidity levels, you have extreme temperature variations depending on the geography. Right. But actually, the real nightmare for any wireless network engineer is the massive amount of electromagnetic interference, or EMI as we call it.

SPEAKER_01 2:38

Aaron Powell Okay, let's delve into that interference aspect because I think people underestimate how much metal impacts Wi-Fi.

SPEAKER_00 2:45

Oh, it is the biggest hurdle.

SPEAKER_01 2:46

Right. Because when you have giant cranes moving overhead and heavy machinery operating constantly, you are essentially dealing with an environment that is a constantly shifting Faraday cage.

SPEAKER_00 2:57

Trevor Burrus, Jr. That is the perfect way to explain it. A shifting Faraday cage. Because you see, you have these massive piles of steel coils that act as giant signal blockers. Yeah. Or uh even worse, they act as reflectors.

SPEAKER_01 3:09

Bouncing the signal all over the place.

SPEAKER_00 3:10

Exactly, causing multipath interference. And the physical layout of the warehouse floor changes hour by hour as these materials are processed and shipped out.

SPEAKER_01 3:18

So the network map is never static.

SPEAKER_00 3:21

Never. Maintaining a stable radio frequency environment there is notoriously difficult. I mean, if an automated guided vehicle or even just a worker's inventory scanner loses connection because, say, a forklift moved a ton of steel into the line of sight, the signal drops. The signal drops, and the digital nervous system essentially misfires.

SPEAKER_01 3:40

And the physical muscles of the operation simply cannot coordinate.

SPEAKER_00 3:44

Precisely. And this was exactly the problem. The existing aging network was becoming a serious bottleneck for them.

SPEAKER_01 3:51

Aaron Ross Powell Because they have all these digital transformation initiatives they want to roll out, right?

SPEAKER_00 3:55

Yes. They were wanting to integrate highly sensitive industrial IoT sensors. They need real-time inventory tracking, seamless order processing. Trevor Burrus, Jr.

SPEAKER_01 4:04

But none of that yields any ROI if the network drops every time a gantry crane passes by.

SPEAKER_00 4:08

Exactly. So the business stakes for getting this upgrade right were, well, existential for their modernization goals. The legacy system was essentially end of life.

SPEAKER_01 4:18

Aaron Ross Powell Meaning it lacked the data throughput and the architectural flexibility required for modern logistics.

SPEAKER_00 4:24

Aaron Powell Right. They were basically sitting on a ticking clock.

SPEAKER_01 4:27

Okay. I have to pause you here and ask the obvious question.

SPEAKER_00 4:29

Go ahead.

SPEAKER_01 4:30

If the issue is simply that the equipment is outdated and the environment is uh exceptionally tough, why reinvent the wheel?

SPEAKER_00 4:40

Ah, I see where you're going with this.

SPEAKER_01 4:42

Aaron Powell I mean, why not just go to one of the traditional enterprise networking giants, buy their most expensive, ruggedized outdoor routers, bolt them to the ceiling, and call it a day.

SPEAKER_00 4:50

See, buying the toughest box on the market solves the physical problem. But it creates a massive operational one at the back end. How so? Well, when you buy into a traditional monolithic vendor for a deployment spanning 40 countries, you immediately lock yourself into their proprietary ecosystem.

SPEAKER_01 5:07

Ah, vendor lock-in.

SPEAKER_00 5:08

Exactly. You become completely dependent on their specific management tools. You are tied to their licensing fees and their specific upgrade cycles.

SPEAKER_01 5:16

Which can be incredibly restrictive.

SPEAKER_00 5:18

Highly restrictive. For an operation with over 200 physical locations globally, Fees and Krupp needed a holistic, centrally managed network, one that was completely hardware agnostic.

SPEAKER_01 5:30

So an environment that breaks standard hardware combined with an operational scale that makes standard management impossible.

SPEAKER_00 5:37

Right. That is the core paradox.

SPEAKER_01 5:39

And that paradox is what forced them to abandon the traditional enterprise IT playbook entirely.

SPEAKER_00 5:44

It did, actually. It led them to a very unique multi-partner collaboration instead of relying on a single vendor. Trevor Burrus, Jr.

SPEAKER_01 5:52

Which is quite rare at this scale.

SPEAKER_00 5:54

It is. They brought in HFCL to provide the core open technological framework. Then EPS Global came in to handle the staggering global logistics.

SPEAKER_01 6:04

And there was a third partner, right?

SPEAKER_00 6:05

Yes, BE Networks. They provided the specialized hyper-automation software.

SPEAKER_01 6:10

Okay, let's examine that core framework first, open networking. Because this concept is gaining a lot of traction, but it often gets muddled in marketing speak.

SPEAKER_00 6:18

Oh, constantly. People use it as a buzzword.

SPEAKER_01 6:20

Right. But at a foundational level, is it akin to, say, the difference between a closed mobile ecosystem like iOS, where you have to buy their specific hardware, versus an open ecosystem like Android?

SPEAKER_00 6:31

Aaron Powell That is a very accurate analogy.

SPEAKER_01 6:33

Aaron Powell So with Android, the underlying software can run on devices manufactured by completely different hardware companies.

SPEAKER_00 6:40

Aaron Powell The analogy holds up very well in this context, because uh in traditional legacy networking, if you use vendor A's controller, you must buy vendor A's access points.

SPEAKER_01 6:50

Aaron Powell They only speak their own proprietary protocol.

SPEAKER_00 6:53

Exactly. But Thesyncrup opted for HFCL's open Wi-Fi firmware. Now what this does is it basically decouples the control plane from the data plane.

SPEAKER_01 7:04

Breaking the vendor lock-in completely.

SPEAKER_00 7:06

Right. It provides the flexibility to integrate access points from completely different manufacturers if, say, the market shifts in the future.

SPEAKER_01 7:14

So you are not stuck.

SPEAKER_00 7:15

You are never stuck. Regardless of the hardware's origin, everything is managed seamlessly through a single HFCL cloud controller.

SPEAKER_01 7:22

That is huge.

SPEAKER_00 7:23

It is. It ensures the company's IT roadmap is never held hostage to a single vendor's pricing structure or supply chain issues.

SPEAKER_01 7:30

But I have to play devil's advocate here for a moment.

SPEAKER_00 7:32

Please do.

SPEAKER_01 7:33

Open networking sounds fantastic in theory, but it is notorious for having a highly fragmented support model.

SPEAKER_00 7:39

Uh, the troubleshooting nightmare.

SPEAKER_01 7:41

Exactly. I mean, when the Wi-Fi drops in a German processing center and a massive gantry crane stops moving, who do they actually call? The hardware vendor. The software guys.

SPEAKER_00 7:52

That is the classic problem.

SPEAKER_01 7:54

Right. Because avoiding vendor lock-in usually means the enterprise ends up playing system integrator themselves, trying to force incompatible devices to talk to each other. How do they avoid that trap?

SPEAKER_00 8:05

That is indeed the critical flaw in many open source deployments. But they mitigated it entirely through HFCL's overarching cloud architecture.

SPEAKER_01 8:14

Okay, how does that work?

SPEAKER_00 8:15

The cloud controller essentially acts as the single pane of class. It standardizes the telemetry coming from the hardware.

SPEAKER_01 8:21

So it translates everything into one language.

SPEAKER_00 8:23

Basically, yes. So instead of pointing fingers at different vendors, the IT team has a unified diagnostic dashboard. It instantly isolates whether it is an RF interference issue on the floor or a firmware glitch or an actual physical hardware failure.

SPEAKER_01 8:38

Ah, I see. So they centralize the intelligence. That makes perfect sense.

SPEAKER_00 8:41

It streamlines the entire operation.

SPEAKER_01 8:43

But moving from the software logic back to the warehouse floor, the physical access points still have to survive that hostile environment we detailed earlier.

SPEAKER_00 8:52

They absolutely do.

SPEAKER_01 8:53

I mean, software cannot stop metallic dust from corroding a motherboard.

SPEAKER_00 8:56

No, it cannot. Which brings us to the actual hardware selection.

SPEAKER_01 9:00

Right.

SPEAKER_00 9:00

They deployed HFCL's Wi-Fi 6 access points, and these utilize highly advanced Qualcomm chipsets.

SPEAKER_01 9:08

And they use different models for different areas.

SPEAKER_00 9:10

Yes. They used a mix of two by two ceiling-mounted models for the indoor zones, and then highly ruggedized outdoor models built to withstand extreme environmental degradation for the tougher areas.

SPEAKER_01 9:21

Now, diving into the specifications of those access points, I noticed something interesting in the source material.

SPEAKER_00 9:26

What was that?

SPEAKER_01 9:27

The case study highlights an intelligent control plane for self-healing and self-optimization.

SPEAKER_00 9:32

Yes, a very crucial feature.

SPEAKER_01 9:34

But we hear self-healing thrown around a lot in tech. What is the actual mechanic behind this? I mean, the router isn't physically repairing its own broken antennas, right?

SPEAKER_00 9:44

No, no physical repairs happening there. It basically comes down to continuous radio frequency monitoring and dynamic beamforming.

SPEAKER_01 9:51

Okay, let's go back to our moving crane scenario to explain this.

SPEAKER_00 9:54

Perfect. So as that crane moves and blocks the line of sight, the access point does not just sit there attempting to push a signal blindly through solid metal.

SPEAKER_01 10:05

Because that would just result in a dead zone.

SPEAKER_00 10:06

Exactly. These access points feature integrated omnidirectional antennas, and they are constantly measuring the RF impedance in their immediate vicinity.

SPEAKER_01 10:16

Wait, so it detects the drop in signal quality in real time?

SPEAKER_00 10:19

In milliseconds, actually. Once the intelligent control plane recognizes that physical obstruction, it immediately calculates an alternative route.

SPEAKER_01 10:26

Oh wow.

SPEAKER_00 10:27

It communicates with neighboring access points, it dynamically adjusts its own power levels, and it steers the client device, say that worker's inventory scanner, to a completely different channel or frequency band that is unobstructed.

SPEAKER_01 10:40

It is essentially routing the signal around the physical obstacles using phase shifts and neighboring nodes completely automatically.

SPEAKER_00 10:47

Exactly. It is constantly self-optimizing. The network recalibrates the RF environment without a human engineer ever having to log into a console to troubleshoot a dead zone.

SPEAKER_01 10:58

That is brilliant. It guarantees stability despite the chaotic physical environment of heavy industry.

SPEAKER_00 11:04

It does. It takes the human error and the manual labor out of maintaining the signal. Trevor Burrus, Jr.

SPEAKER_01 11:09

The engineering behind that is genuinely impressive. So they have open software to maintain agility, and they have intelligent, self-healing hardware to conquer the environment. But that brings us to what I consider the most daunting hurdle of this entire case study.

SPEAKER_00 11:24

The logistics.

SPEAKER_01 11:25

Yes, the logistics. You have over 150 warehouses and 30 processing centers scattered across 40 different countries.

SPEAKER_00 11:33

It is a massive geographical spread.

SPEAKER_01 11:34

How on earth do you physically install and securely configure this highly advanced network without deploying an army of highly paid IP specialists on airplanes all over the world?

SPEAKER_00 11:44

See, if they had done it the old way, the cost and the downtime associated with a manual rollout of that scale would be astronomical.

SPEAKER_01 11:52

Just the flight tickets alone.

SPEAKER_00 11:53

Exactly. You would typically need a certified technician at every single site to unpack the box, connect it via a console cable, configure the IP settings, and link it to the central server.

SPEAKER_01 12:04

Which is exactly where traditional upgrades always bottleneck. It just takes months.

SPEAKER_00 12:08

But this deployment relied on the concept of zero touch provisioning or ZTP. It is truly the secret weapon of this entire transformation.

SPEAKER_01 12:18

Okay, let us unpack the mechanics of zero touch provisioning. Because it sounds like magic, but obviously there is some heavy logistical and software engineering making it happen.

SPEAKER_00 12:26

Oh, definitely. A lot of orchestration in the background.

SPEAKER_01 12:29

So how does a completely blank piece of hardware securely find its specific configuration in the cloud without getting intercepted or requiring local input?

SPEAKER_00 12:39

This is where the ecosystem of partners really shines. EPS Global, acting as the distributor partner, utilized its massive logistics network across North America and the EMEA region, Europe, the Middle East, and Africa. Right. But they did not just act as a courier service dropping off boxes, they handled the pre-staging.

SPEAKER_01 12:57

Wait, pre-staging the hardware before it even ships?

SPEAKER_00 13:00

Yes, essentially. Before any unit left the distribution center, its MS address and serial number were pre-registered into the central cloud inventory. And the hardware was shipped with the base operating system already installed.

SPEAKER_01 13:12

So let's visualize this. When a box arrives at a remote processing center in, say, Eastern Europe, what actually happens next?

SPEAKER_00 13:20

It is brilliantly simple. A local worker who needs absolutely zero networking background just takes the access point out of the box, mounts it to the ceiling, and plugs in the Ethernet cable.

SPEAKER_01 13:31

And that cable provides both data and power over Ethernet.

SPEAKER_00 13:34

Exactly. The moment that device boots up, it requests an IP address from the local network via DHCP.

SPEAKER_01 13:40

Standard protocol so far.

SPEAKER_00 13:42

But then, using predefined DNS records or secure boot process, the access point automatically reaches out over the internet to the central cloud controller.

SPEAKER_01 13:50

It essentially phones home.

SPEAKER_00 13:52

Yes. It says, I am serial number XYZ, where do I belong? And this is where B network system Verity takes over with what they term hyper automation.

SPEAKER_01 14:00

So Verity matches that specific serial number to the pre-registered profile for that exact warehouse.

SPEAKER_00 14:06

Instantly. It establishes a secure encrypted tunnel, usually IPsec or TLS, and automatically pushes down the specific configuration profile, the security policies, the RF parameters, and any required firmware updates for that exact location.

SPEAKER_01 14:22

Aaron Powell That drastically changes the deployment math. I mean, you are entirely decoupling the intelligence of the network from the physical installation process.

SPEAKER_00 14:31

That is exactly what it does.

SPEAKER_01 14:32

A local facility manager just plugs a box into the wall, and the central brain in the cloud adopts it, configures it, and integrates it into the global network in minutes.

SPEAKER_00 14:41

It is seamless. And Verity continues to manage the entire lifecycle.

SPEAKER_01 14:45

What do you mean by life cycle?

SPEAKER_00 14:47

Well, think about maintenance. If a forklift damages an access point three years from now, the process is identical.

SPEAKER_01 14:52

Oh, I see.

SPEAKER_00 14:53

You just mail a replacement box, plug it in, and Verity automatically provisions the new unit to inherit the exact configuration of the broken one.

SPEAKER_01 15:00

That is incredible. It completely slashes the on-site technical requirements and severely reduces the total cost of ownership.

SPEAKER_00 15:07

It really does. It turns a massive IT headache into a basic shipping task.

SPEAKER_01 15:12

So having dissected the environmental hurdles, the shift to open networking, the self-healing hardware, and the sheer logistical elegance of zero-touch provisioning, we need to look at the ground reality of the results.

SPEAKER_00 15:24

The final verdict.

SPEAKER_01 15:25

Yes. What is the objective verdict for ThyssenKrupp after this global overhaul?

SPEAKER_00 15:31

The results were genuinely transformative. By moving to Wi-Fi 6, they achieved vastly superior throughput and device density handling.

SPEAKER_01 15:39

Meaning more sensors and scanners can connect at once?

SPEAKER_00 15:42

Yes. And the self-healing mechanisms drastically reduced operational downtime, meaning those automated vehicles and IoT sensors finally had the stable connectivity required to function in a high EMI environment.

SPEAKER_01 15:54

So the physical muscles of the operation are seamlessly coordinated again. And what about the cost and management side?

SPEAKER_00 16:00

Very positive. By utilizing zero-touch provisioning and centralized cloud management, they significantly reduce their capital expenditure on deployment.

SPEAKER_01 16:07

Because they bypass the need for expensive localized IT labor.

SPEAKER_00 16:12

Exactly. Furthermore, because of the open network architecture, they now possess a highly scalable system.

SPEAKER_01 16:18

So they are ready for whatever comes next.

SPEAKER_00 16:20

Yes. They have effectively future-proofed their infrastructure. They retain the agility to adapt to new technologies without any vendor lock-in. Trevor Burrus, Jr.

SPEAKER_01 16:28

It fundamentally reshapes their digital foundation. And uh we do have a rather definitive data point on the success of the implementation from Marco Decker.

unknown 16:37

Trevor Burrus, Jr.

SPEAKER_00 16:38

The head of connectivity SDNet at Decent Crop Material Services.

SPEAKER_01 16:41

Yes. He stated, thank you very much for supporting us. Your products are amazing, and I can only encourage everyone to take a look at the product line of IO by HFCL.

SPEAKER_00 16:50

That is high praise.

SPEAKER_01 16:51

Aaron Powell It is. And while it is a strong endorsement, what is critical to note here is that massive industrial players simply do not offer public praise of infrastructure overhauls unless the implementation genuinely solves the underlying operational nightmares.

SPEAKER_00 17:06

Aaron Powell Absolutely true. It is a testament to the engineering synergy. I mean, HFCL, EPS Global, and BE networks didn't just ship hardware. Trevor Burrus, Jr.

SPEAKER_01 17:14

No, they provided a framework.

SPEAKER_00 17:16

Aaron Powell Right. They architected a comprehensive solution that turned a logistical liability into a strategic asset.

SPEAKER_01 17:22

Aaron Powell Which brings me to the broader implications for our listener.

SPEAKER_00 17:26

Yes, the big picture.

SPEAKER_01 17:27

Because you might be listening at this right now and thinking, well, I don't run a global steel distribution empire, so how does this apply to my field?

SPEAKER_00 17:34

It applies to almost every sector, actually.

SPEAKER_01 17:36

Trevor Burrus, Jr. Exactly. Whether you are managing healthcare IT, a retail supply chain, or even modernizing a mid-size manufacturing plant. What is the core takeaway from this case study?

SPEAKER_00 17:48

For me, the core takeaway is the democratization of enterprise agility.

SPEAKER_01 17:52

I like that phrasing. Expand on that.

SPEAKER_00 17:54

Well, for decades, the narrative was that heavy, physically demanding industries were doomed to slow, rigid, incredibly expensive IT cycles.

SPEAKER_01 18:04

That you just had to accept the clunkiness.

SPEAKER_00 18:06

Exactly. But open networking and zero-touch provisioning prove that is no longer the case. Even the oldest legacy industries can operate with the network agility of a Silicon Valley startup.

SPEAKER_01 18:16

It is a masterclass in utilizing centralized software intelligence to solve decentralized real-world physical problems.

SPEAKER_00 18:23

The paradigm has fundamentally shifted. The flexibility to choose your hardware while maintaining a unified automated management system is no longer just a luxury.

SPEAKER_01 18:33

It is a necessity.

SPEAKER_00 18:34

Right. It is becoming the standard for any resilient enterprise IT strategy.

SPEAKER_01 18:39

That is a profound shift in how we approach legacy infrastructure. Which leads me to a final thought I want to leave you, our listener, to ponder today.

SPEAKER_00 18:48

Over to you.

SPEAKER_01 18:49

Take a step back and look at the oldest, most rigid, most frustrating systems in your own industry, or perhaps even in your own organizational workflow. We all have those operational bottlenecks that we simply accept as being too massive or too disruptive to overhaul.

SPEAKER_00 19:04

We certainly do.

SPEAKER_01 19:05

How could applying the principles we dissected today, embracing open ecosystems instead of proprietary lock-in, and implementing automated zero-touch deployment instead of manual intervention, turn your biggest logistical nightmare into your greatest operational advantage?

SPEAKER_00 19:21

It certainly begs the question of what else we are overcomplicating with legacy thinking.

SPEAKER_01 19:25

And that brings us to the end of this chapter in the HFCL Time Machine. Until next time, stay connected to what's next.

SPEAKER_00 19:32

You've been listening to HFCL Time Machine. For more conversations like this, find us on LinkedIn, Instagram, and YouTube.