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April 15, 2026

Is AI Eating SaaS? Maybe. But the Real Opportunity Lies Elsewhere

Is the “SaaSpocalypse” real? What are the implications for the application of AI in construction, infrastructure and the other areas in which HG Ventures invests? Jon Schalliol explores this brave new world.  

“AI is eating SaaS” has become one of the favorite lines in venture circles. There is truth in it, but I think it misses the more interesting story.

The better question is not whether AI kills software. It is where AI changes the economics of value creation.

My own view is that AI is not wiping out software so much as repricing distance from the work. The thinner the layer, the more vulnerable it may be. The closer a product gets to a real asset, a real operator, and a real-world outcome, the more durable and valuable the opportunity can become.

Why SaaS May Be Especially Vulnerable

Earlier in my career, I spent years in Silicon Valley as a technology investment banker and tech startup founder. That gave me a front-row seat to the rise of cloud computing and the explosion of software companies that followed.

I began to notice a structural pattern. In contrast to growing up in tech in the 90s, a surprising number of companies were solving problems created by other software. They were managing workflows generated by digital systems, interpreting data from other tools, or smoothing handoffs between applications that had become complicated in the first place.

That did not make those businesses unimportant. Many created real value. But a lot of them also lived in the middle. Their product was often software managing software.

That is exactly the kind of logic AI is well positioned to absorb. When models can reason across data, automate workflows, and generate decisions dynamically, some of the reporting, orchestration, and translation layers that once justified standalone applications become less scarce.

That does not mean SaaS disappears. Far from it. Cloud software is still a massive market. Bessemer’s 2025 Cloud 100 cohort topped $1 trillion in aggregate value, and Meritech still describes public software as a market worth nearly $3 trillion. This is not extinction. It is repricing.

What Matters Now: Distance From Ground Truth

The concept I keep coming back to is distance from ground truth.

If a product is several steps removed from the underlying work, it may be easier for AI to compress. If a product is tied directly to the asset, the workflow, the operator, the image, the machine, or the field decision, it is much harder to dislodge because it is closer to the source of truth and closer to the consequence of getting it wrong.

That is why I think the next wave of enduring AI companies will not simply add one more dashboard or one more layer of digital administration. They will close the loop between perception, decision, and execution.

Where the Durable Value Lies

The hardest constraints in the economy are still physical. Roads deteriorate. Plants go down. Construction projects slip. Freight gets delayed. Assets wear out. Materials still have to be made, moved, inspected, repaired, and maintained. In those environments, mistakes do not just create annoying software tickets. They show up as downtime, rework, safety incidents, wasted capital, supply chain disruption, and slower growth.

That is why the more compelling AI opportunity is not simply building another digital productivity layer. It is connecting intelligence more directly to assets, operators, and decisions in the real world.

The current data is starting to line up behind that view. McKinsey says 88 percent of organizations now use AI in at least one business function, but only about one-third have begun scaling it across the enterprise. In other words, adoption is broad, but durable operational value is still hard won. The companies pulling ahead are redesigning workflows, not just sprinkling in AI features.

Connecting AI to the Physical Economy

This point lands especially hard in industrial settings because the workflows are messy, fragmented, and high consequence. Deloitte’s 2025 smart manufacturing survey reported gains of 10 percent to 20 percent in production output, 7 percent to 20 percent in employee productivity, and 10 percent to 15 percent in unlocked capacity. Those are not vanity metrics. That is operating leverage.

Construction and infrastructure offer a vivid example of the opportunity. Autodesk cites research showing that 95.5 percent of engineering and construction data still goes unused, and points to poor project data and miscommunication as drivers of 48 percent of rework in U.S. construction, or roughly $31.3 billion. ASCE’s 2025 infrastructure report card adds another signal, giving the United States an overall C, with roads at D+, and estimating that poor road conditions cost the average driver about $1,400 a year while congestion cost the average U.S. driver 43 hours in 2024. That is a huge amount of trapped value hiding in plain sight across the built environment.

The same pattern extends far beyond construction and infrastructure. Across manufacturing, transportation, logistics, energy, utilities, and field service, important data is still fragmented, underused, or trapped in separate systems even though the consequences are physical and immediate. Delayed shipments, unplanned downtime, deferred maintenance, safety incidents, and bad handoffs do not just create software friction. They destroy throughput, tie up labor, waste capital, and slow growth. That is exactly why AI applied close to the work can matter so much.

This is also why the phrase physical AI is starting to show up more often. Whether that label sticks or not, the direction is clear. The next wave is not just language models in chat boxes. It is intelligence embedded in infrastructure, equipment, mobility systems, industrial operations, and field workflows. The International Federation of Robotics reported 542,000 industrial robots installed in 2024, more than double the level from 10 years earlier. The physical world is becoming more instrumented, more connected, and more addressable by AI.

What We Are Seeing Already

We are already seeing early versions of this in the market.

In roads and transportation, StreetIQ applies AI-powered road condition scoring to help agencies assess pavement, prioritize repairs, and plan budgets more intelligently. Valerann fuses camera feeds, traffic, weather, and other roadway data so operators can detect incidents earlier and respond faster. In public works construction, PinPoint Analytics uses AI and a deep historical bid database to help contractors, engineers, and government owners estimate costs, benchmark line items, and reduce the costly guesswork that still defines too much of heavy civil preconstruction.

The same pattern is showing up across other parts of the physical economy. Circulor uses AI, digital traceability, and near real-time supply chain monitoring to help manufacturers follow critical materials, track embedded emissions, manage compliance, and prepare battery passports. Augury applies AI to machine health and process performance so plants can spot failures before they happen, reduce downtime, and improve output. Samsara uses AI across fleets and field operations to reduce crashes, coach drivers, and give operators a tighter grip on safety and utilization. Gecko Robotics combines robots, sensors, and AI to create a decision layer around critical assets in power, defense, manufacturing, and industrial infrastructure, helping operators see what is actually happening inside the asset before failures become expensive.

These are very different businesses, but they share an important pattern. They are not just digitizing paperwork in the middle of a process. They are connecting data from the real world to decisions that matter in the real world.

AI as an Amplifier

That is why I think the biggest AI opportunities, especially in industrial sectors, may bypass a lot of the middle.

As model intelligence becomes cheaper and more available, defensibility will come less from the model itself and more from deployment context: proprietary data, workflow integration, domain expertise, and the ability to drive action where the work is actually happening.

To me, that is the bigger story. AI is not simply replacing software. It is compressing certain layers, yes, but it is also shifting value toward companies that can get closer to ground truth and turn insight into action.

Some of the middle will absolutely get thinner. But the bigger prize may belong to the companies using AI to improve how the physical economy is built, operated, maintained, and moved.

When software gets close enough to the hard work of the world, it stops looking like just software. It starts to look like operating leverage.

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April 9, 2026

Why We Invested: R3 and the Missing Link in Battery Recycling

HG Ventures recently co-led a major investment in R3 Robotics, a Luxembourg-headquartered company focused on the automated disassembly of end-of-life electric vehicle and other complex electrical systems, at scale. Erin Crowther draws back the curtain on why we are all in on this robotic revolution.

Battery recycling is often framed as a chemistry problem: How do we recover more critical materials? How do we improve yields? How do we make the process more efficient?

But in many cases, the real constraint sits much earlier in the process, at the disassembly stage.

The Hidden Bottleneck

Before any chemical recycling processes can begin, batteries must be safely and effectively taken apart, and that has traditionally been manual, often dangerous work, and difficult to scale.

Battery packs can weigh over 1,000 pounds. They contain high voltages, hazardous materials, and complex assemblies of fasteners, casings, and components. Disassembling them is not only labor-intensive, it also introduces real safety risks.

At the same time, battery designs are constantly evolving, so recyclers are not dealing with a single standardized format, but with a wide, growing and ever-changing variety of pack designs.

While EV batteries are the most visible example, the disassembly challenge applies beyond just them. Many other complex electrical systems—across vehicles, industrial equipment, and electronic devices —share the same characteristics: high voltage, hazardous components, intricate assembly, and significant variability in design. In each case, disassembly is a critical, and often overlooked, constraint.

The result is a bottleneck.

If you can’t safely and efficiently disassemble these systems, you can’t scale recycling. And if you can’t scale recycling, you limit both material recovery and the broader transition to a circular economy.

R3’s Approach: Safety and Throughput

R3 is focused on solving that bottleneck directly, starting with EV battery systems, but with an approach that extends to a broader class of complex electrical assemblies.

At its core, the company is deploying robotics and software to transform disassembly from a manual, high-risk process into one that is automated, safer, and more scalable.

Two outcomes sit at the center of that approach:

  • Safety: Reducing human exposure to high-voltage systems, heavy components, and hazardous materials
  • Time and throughput: Automating (and so speeding up) a process that is otherwise slow, intricate, and labor-dependent

Taken together, those outcomes change the game for EV battery disassembly and recycling.

Why It Matters

When disassembly becomes faster and safer, the impact cascades through the entire recycling process.

  • More systems can be processed: Throughput increases, enabling recyclers to handle growing volumes of end-of-life batteries and other electrical equipment.
  • Material recovery improves: More precise disassembly reduces damage and enables better separation of components, increasing the value of recovered materials.
  • Unit economics strengthen: Lower labor requirements, combined with higher throughput and recovery rates, improve the economics of recycling overall.

In other words, improvements at the front end compound across the entire value chain.

How R3 Makes It Work

What stood out to us is not just the problem R3 is addressing, but how it is doing so.

A modular system, delivered as a service: R3’s technology is designed to integrate into existing facilities, rather than requiring recyclers to build new infrastructure from scratch. Combined with its Robotics-as-a-Service model, this lowers upfront capital requirements, aligns incentives with customer outcomes, and allows customers to scale capacity in line with demand.

A growing data advantage: Battery formats, and electrical system designs more broadly, are rapidly changing across manufacturers and applications. As R3 processes more batteries and other electrical systems, it builds a library of knowledge that allows it to adapt to new designs and improve over time. That feedback loop—more systems, more data, better performance—is central to its long-term differentiation.

Robotics and software built for real-world execution: Unlike traditional automation, which relies on highly controlled, repeatable environments, R3’s system is designed to operate in the variability of real facilities, handling different form factors, conditions, and workflows. This ability to perform reliably outside the lab is critical to scaling in industrial settings.

Why This Team

It is a truism that VCs invest in people, first and foremost, and this is a team that understands both the technical and operational challenges of what they are building.

There is a strong sense of urgency and practicality in how they are approaching the problem, not just developing technology, but making it easy to deploy that technology in real-world environments where it needs to perform.

That combination of technical depth, operational focus, and a clear understanding of the industry is what gives us confidence in this team’s ability to execute.

The Bigger Picture

At HG Ventures, we spend a lot of time thinking about where bottlenecks exist in industrial systems, and often they are not where you might initially expect.

In battery recycling—and increasingly across other complex electrical systems—disassembly is one of those points. It sits upstream, but it shapes everything that follows.

By addressing that constraint and making the process safer, faster, and more adaptable, R3 is enabling higher recovery rates, better economics, and a more scalable path to circularity.