Navitas Semiconductor, trading under the ticker NVTS, has positioned itself as a critical power delivery infrastructure company for robotics and AI applications, much like NVIDIA has dominated computing. The comparison stems from a fundamental reality: as robots and AI systems become more power-hungry, they need semiconductor companies that can efficiently convert and deliver that power. NVTS specializes in gallium nitride (GaN) and silicon carbide (SiC) power semiconductors that handle this energy conversion with significantly less heat and waste than traditional silicon alternatives. In March 2026, the company announced a breakthrough 800V-to-6V power delivery board thinner than a mobile phone, designed specifically for NVIDIA AI data center infrastructure—a validation that NVTS has become essential to the powerhouse companies driving automation.
However, calling NVTS “the Nvidia of power” requires context. While NVIDIA built its dominance on computing, NVTS is still in a growth transition. The company generated $45.92 million in revenue during 2025, down 44.88% from the prior year, while net losses expanded to $116.95 million. This volatility reflects a company pivoting away from its legacy mobile charger business toward the higher-stakes markets of AI data centers, electric vehicles, and robotics. The stock jumped 10.79% on April 8, 2026, following the power board announcement, signaling investor confidence in the strategic pivot—but the underlying financials reveal a company gambling on future growth rather than delivering current profitability.
Table of Contents
- Why GaN Power Semiconductors Matter for Robotics Systems
- The 800V-to-6V Power Board and Modern AI Infrastructure
- Power Efficiency in Autonomous Robotics Applications
- NVTS’s Strategic Pivot and Market Timing
- Supply Chain Risks and the Navitas-Infineon Partnership
- Real-World Robotics Power Delivery Example
- The Robotics Power Semiconductor Market Outlook
- Conclusion
Why GaN Power Semiconductors Matter for Robotics Systems
GaN semiconductors enable robotics to operate more efficiently than silicon-based power delivery systems. In practical terms, a robotic arm powered by GaN-based converters loses less energy as heat, allowing manufacturers to make smaller power supplies, reduce cooling requirements, and extend battery life on mobile robots. Traditional silicon power converters dissipate energy wastefully during voltage conversion; GaN switches faster and with lower resistance, meaning the same power input can deliver more usable energy to the robot’s motors and controllers. This efficiency advantage becomes critical in applications like industrial collaborative robots, autonomous mobile robots, and humanoid systems where weight, heat management, and runtime directly impact operational cost and safety.
Navitas has bet heavily on GaN technology through its “GaNFast” product family, which targets data centers and power delivery infrastructure. The company’s partnership with Infineon Technologies for customer dual sourcing demonstrates that GaN adoption is becoming industry standard, not a niche advantage. For robotics specifically, this means manufacturers can increasingly rely on GaN-based power boards rather than designing custom solutions, reducing development time and cost. However, GaN semiconductors remain more expensive per watt than mature silicon alternatives, which limits adoption in cost-sensitive robotics markets like consumer drones or basic industrial automation.
The 800V-to-6V Power Board and Modern AI Infrastructure
The technical achievement that earned Navitas investor attention in March 2026 was the announcement of an 800V-to-6V DC-DC power delivery board that performs a single-stage conversion in a form factor thinner than a smartphone. This addresses a real infrastructure challenge: modern AI accelerators, particularly NVIDIA’s data center GPUs, require stable 6V power delivery at extremely high currents, yet data center infrastructure is increasingly moving to 800V systems for efficiency. The Navitas board sits at the junction between these voltage regimes, handling both the conversion and the thermal management that such high-power switching demands.
The limitation here is important: this board is engineered for data center infrastructure, not for the distributed power systems that most robotics applications require. A collaborative robot arm in a factory operates on entirely different electrical parameters than a server rack in a hyperscaler data center. NVTS’s current product roadmap emphasizes AI infrastructure because that market offers higher volumes and higher margins than robotics niche applications. For robotics companies seeking GaN-based power solutions, Navitas’s data center focus means they’re adapting enterprise-grade technology rather than purchasing purpose-built robotics power boards.
Power Efficiency in Autonomous Robotics Applications
Autonomous mobile robots competing in logistics and warehousing operations live or die by power efficiency. A warehouse robot that loses 25% of its battery energy to power conversion inefficiencies must either reduce its delivery range, reduce its payload, or add heavier batteries that cut into profitability. GaN-based power delivery can reduce those conversion losses from 25% to 10% or lower, directly translating to longer shifts, higher throughput, or lighter design.
Navitas’s technology enables this capability, but the company has not yet released robotics-specific power board products that simplify adoption for integrators. The broader shift toward 48V and higher-voltage battery systems in robotics, driven by electric vehicle technology, creates a growing market for efficient step-down converters. As robotics manufacturers adopt EV-grade battery packs—which offer better thermal management and packaging efficiency—they need GaN converters to handle the voltage stepping to lower-voltage subsystems. Navitas’s stated pivot to electric vehicle power semiconductors positions the company to capture this market as robotics increasingly adopts automotive-grade components.
NVTS’s Strategic Pivot and Market Timing
Navitas is executing a dramatic strategic reorientation away from its legacy business in mobile device chargers, where it lost margin to cheaper competitors and faced commoditization. The company’s “Navitas 2.0” pivot targets three markets: AI data centers (the immediate focus), electric vehicles (medium-term), and grid infrastructure (longer-term). Robotics sits at the intersection of all three—robotic systems operate in data centers (as infrastructure), on mobile platforms powered by EV-grade batteries, and increasingly as part of grid-management infrastructure.
The tradeoff Navitas has accepted is real: abandoning a profitable business (however shrinking) for high-growth markets that require significant R&D investment and offer no guarantee of success. The company’s $116.95 million net loss in 2025 reflects this investment. Competitors like Infineon and Texas Instruments have deeper pockets and can afford longer burn rates, which could pressure Navitas if the AI data center market softens. For robotics integrators evaluating Navitas as a power semiconductor partner, this financial vulnerability is a legitimate concern—though the company’s Infineon partnership provides some supply chain insurance.
Supply Chain Risks and the Navitas-Infineon Partnership
The announcement that Infineon Technologies would co-develop and jointly supply Navitas customers addresses a critical weakness: single-source dependency. In semiconductor supply chains, relying on one manufacturer exposes you to fab outages, geopolitical disruptions, and negotiating leverage imbalances. By building in Infineon dual-sourcing, Navitas reduced that risk for enterprise customers but also diluted its own competitive moat.
This is a warning worth noting: Navitas’s main asset is its GaN technology, but if Infineon can manufacture GaNFast products independently, Navitas transitions from a technology leader to a technology licenser—a less valuable position long-term. For robotics companies, the partnership is positive on the surface (guaranteed supply access) but signals that Navitas is struggling to achieve manufacturing volume at competitive cost. A company with robust production capabilities wouldn’t need external partners. This constraint may limit how aggressively Navitas can pursue price competition against pure-play manufacturers like Infineon or Silicon Carbide-focused competitors like Wolfspeed.
Real-World Robotics Power Delivery Example
Consider a six-axis industrial robot arm used in automotive manufacturing. The arm requires 48V main power delivery to its motor drives, 24V for control electronics, and 12V for legacy sensors. Traditionally, a mechanical integrator designs and sources three separate power converters, manages thermal concerns, and tests the entire assembly.
With GaN-based unified power delivery boards—theoretically available from Navitas—that integrator could purchase a single 48V-to-6V/12V/24V converter with integrated power management, reducing board space by 40%, cutting thermal dissipation by half, and reducing bill-of-materials cost. The modularity and efficiency gains are substantial. However, Navitas does not currently market such a product to industrial robotics integrators, choosing instead to focus on hyperscaler data center customers.
The Robotics Power Semiconductor Market Outlook
The robotics industry is reaching an inflection point where power delivery efficiency directly impacts robot profitability and capability. As collaborative robots proliferate in small-to-medium manufacturing, as autonomous mobile robots expand in logistics, and as humanoid robots begin pilot deployments, power semiconductor technology becomes less of a commoditized component and more of a competitive advantage. GaN technology is likely to become the standard for robotics power systems within the next 3-5 years, similar to how lithium-ion became standard for portable electronics. Navitas’s position in this evolution is uncertain.
The company has the right technology and the right strategic focus on high-growth markets, but it’s financially vulnerable and competing against much larger incumbents. If Navitas successfully executes its pivot and reaches profitability in the AI data center segment, it will have the cash and credibility to launch dedicated robotics product lines. If it stumbles in the crowded data center market, financial pressure may force a strategic sale or pivot. For robotics companies evaluating power semiconductors, Navitas offers leading-edge technology with the caveat that it’s a mid-sized company in transition, not an established blue-chip supplier.
Conclusion
Navitas Semiconductor is indeed positioned as a critical power infrastructure company in the age of AI and robotics, but calling it “the Nvidia of power” oversimplifies both the technology and the business dynamics. Navitas has superior GaN semiconductor technology and a strategic focus on the right markets, but the company is early in its pivot, financially underwater, and reliant on partnerships for manufacturing. For robotics integrators, the company’s technology roadmap offers genuine promise—efficient power delivery is a genuine competitive advantage—but current product availability remains focused on data center rather than robotics applications.
The robotics industry should watch Navitas closely. If the company achieves profitability in AI data centers while maintaining its Infineon partnership, it could become an indispensable supplier of power semiconductors for next-generation robots. If it fails to reach critical mass in data center markets, its robotics ambitions may never materialize. Either way, GaN semiconductor technology is becoming essential infrastructure, and Navitas’s success or failure will influence how rapidly the robotics industry can adopt more efficient, smaller, lighter power delivery systems.
