Foundations
Software-Defined Manufacturing

• Breaking the traditional layout: A Siemens partnership is developing a manufacturing capability for autonomous mobile robots, signaling a shift away from production systems built around static conveyors and rigid factory layouts.

• From fixed infrastructure to flexible flow: Unlike traditional material-handling infrastructure, these autonomous mobile robots allow factories to dynamically route components, adjust workflows, and reconfigure operations without rebuilding physical systems.

• Logistics becomes adaptive: As mobile robotics spreads, material movement itself becomes programmable, thereby allowing factories to evolve their internal logistics as production needs change.

Source: “Siemens partnership creates UK’s first fully customisable autonomous mobile robot manufacturing capability”

• AI leaves the screen: Deloitte’s Tech Trends 2026 report highlights the emergence of “physical AI”, which describes systems that move beyond digital outputs to perceive, reason, and act within the physical world through robots and embodied machines.

• From automation to autonomy: Advances in sensors, foundation models, and edge compute are enabling robots to adapt to dynamic environments rather than executing rigid, pre-programmed tasks.

• Manufacturing as the proving ground: Factories and logistics networks are likely to be the first large-scale environments where physical AI is deployed, turning robots from single-purpose tools into learning systems that continuously improve through interaction with the real world.

Source: “AI goes physical: Navigating the convergence of AI and robotics”

• The factory map is changing: McKinsey argues that global manufacturing footprints are being reshaped by geopolitical risk, supply-chain fragility, and the accelerating pace of technological change.

• Resilience over optimization: The era of purely cost-optimized global production is giving way to distributed manufacturing strategies that prioritize resilience, regionalization, and technological capability.

• Technology as the new anchor: As robotics and advanced automation mature, production location will increasingly be determined by infrastructure, talent, and technology ecosystems rather than just labor cost.

Source: “Decoding disruption to reshape manufacturing footprints”

• Training robots before deployment: Nvidia and ABB are partnering to connect Nvidia’s Omniverse simulation platform with ABB’s industrial robotics software, enabling robots to be trained inside digital twins before being deployed in real factories.

• From programming to learning: Manufacturers can use simulated environments to teach robots how to perform tasks, test thousands of scenarios, and transfer those capabilities directly into physical systems.

• The new robotics development cycle: Training robots in simulation shifts automation toward the model of modern AI, where systems improve iteratively through data rather than remaining fixed after deployment.

Source: “Nvidia and ABB launch partnership for AI-enabled autonomous robots”

• Inside the cell: While Foundational has focused on AI-native robotics for extensible manufacturing beyond the core work cell, RoboBallet, a research project from our friends at DeepMind, offers a glimpse of what’s coming next—multi-agent robotic arms coordinating within the cell itself.

• From static code to adaptive motion: The shift from pre-programmed paths to collaborative, learned behavior points to a future where robotic choreography is emergent, not engineered.

• Expanding the circle: While our near-term focus remains on generalizable manufacturing systems, advances like this hint at a deeper transformation—one where even traditionally SKU-specific hardware becomes fluid, adaptive, and part of an extensible whole.

Source: “RoboBallet: Planning for multirobot reaching with graph neural networks and reinforcement learning”

• Industrial gap, made visible: Another reminder of the widening U.S. deficit in industrial automation relative to China. Not news to those in the field—but the fact that it’s entering the mainstream conversation amid trade tension and geopolitical rivalry is.

• Ecosystems, not factories: China’s advantage isn’t just cheap labor or state policy; it’s the interconnected ecosystem that links hardware, supply chains, and capital formation into a continuous automation flywheel.

• Leapfrog, don’t copy: The opportunity for the U.S. isn’t to replicate last-generation static systems, but to vault ahead—to build AI-native, adaptive robotics that render legacy automation architectures obsolete.

Source: "There Are More Robots Working in China Than the Rest of the World Combined"

• An oldie but a goodie: Ben and Marc—founders of a16z, with one of the most forward-looking AI-robotics portfolios—offer one of the clearest conversations yet on the coming convergence of AI and robotics

• From perception to physics: Around the one-hour mark, Ben delivers a sharp primer on Robot Foundation Models—how robots might learn the laws of physics directly from real-world video data rather than abstract simulation.

• A blueprint for reindustrialization: At 1:12, Marc argues that America’s manufacturing revival depends on fully AI-native factories. We share his call for an Operation Warp Speed for Manufacturing—a national effort that, while uniquely suited to U.S. strengths in AI, will demand a new generation of trade schools training the “manufacturing technologists” who will make it real.

Source: "AI, Robotics & the Future of Manufacturing"

• A watershed moment: Physical Intelligence’s emergence from stealth marked the closest thing yet to a ChatGPT moment for robotics—a public proof that generalized robotic intelligence is moving from research to reality.

• From domestic to industrial: While the company and the broader RFM ecosystem have since evolved, this announcement still stands as a north star for what’s next: robotic understanding of physics which will ultimately transcend these illustrative domestic tasks and begin to operate in complex industrial environments.

• Direction of travel: The trajectory is clear—foundation models will become the substrate for physical intelligence, turning robots from task executors into adaptive agents capable of learning, collaborating, and reasoning about the physical world.

Source: "π0: Our First Generalist Policy"

• Reclaiming the “next industrial revolution”: The phrase gets overused, but this essay earns it—a rare, rigorous look at why AI-native robotics represents a genuine break from prior industrial paradigms.

• Decoupling production from constraint: By merging intelligence with actuation, we begin to separate manufacturing from many of its historic limits—geometry, geography, even human scheduling. Production becomes software-defined.

• Why it matters: This is the quiet transformation beneath the hype: AI-native robotics doesn’t just make factories smarter—it changes what a factory is, unlocking a new physics of production itself.

Source: "Cost Physics & Reindustrialization"

• To humanoid or not? Rodney Brooks questions the prevailing assumption: humanoid form factors don’t guarantee dexterity or generalizability, even if our world is built for human dimensions.

• Video isn’t enough: He argues that visual learning alone, without rich tactile and force feedback, can’t bridge the gap to dexterous manipulation—especially in unstructured environments.

• What this means for us: In industrial domains, we’re more interested in pragmatic capability than human mimicry. Although we’re open to experimentation with humanoids (reach out, folks!), our bets so far favor specialized, form-adapted manipulators—while keeping an eye on whether future hybrids or new sensor modalities shift the calculus.

Source: "Why Today’s Humanoids Won’t Learn Dexterity"