Every time a transistor switches, it generates heat. Pack enough transistors together and you hit a wall: the chip melts before it computes. This thermal ceiling is why Splunk notes that "as physical and economic limitations are reached, the pace predicted by Moore's Law is slowing."
Light solves this problem. Photons carry information without generating heat. Semiconductor Engineering details how heat dissipation and bandwidth bottlenecks make optical solutions the only viable path forward.
But photonics introduces a different problem. Silicon has an indirect bandgap, which means it cannot emit light efficiently enough to produce lasers. Building photonic systems requires III-V compound semiconductors like indium phosphide (InP) and gallium arsenide (GaAs). These materials come with manufacturing constraints: InP substrates remain limited to 150mm, and GaAs wafers top out at 150mm, while silicon runs at standard industrial diameters of 200mm or 300mm. You cannot build a complete photonic system on silicon alone, so heterogeneous integration becomes mandatory. The result is that chief technology officers (CTOs) now manage two incompatible material systems, doubling technical complexity and supply chain risk.
How Different Regions Are Responding
United States
Intel has shipped 8 million photonic chips with 32 million integrated lasers. But the move that matters most is NVIDIA adopting TSMC-Broadcom co-packaged optics in its 2025 GB300 chips. When the dominant AI hardware company makes an architectural choice, competitors either follow or lose relevance.
Europe
European companies are solving their scale problem through consolidation. The market grew from €124.6 billion (2022) to a projected €175 billion (2027). Between January and June 2025, EPIC recorded 125 transactions worldwide, with European companies leading 50 of them. ZEISS established a new strategic business unit with €200 million in annual revenue across 6 countries. The strategy is to build on existing strengths in materials science and precision manufacturing.
China
China is building a parallel system designed for self-sufficiency. CHIPX produces 6-inch lithium niobate wafers with 110 GHz bandwidth, built despite U.S. export controls. This aligns with national policy: Xi Jinping chaired a February 2023 Politburo session focused on "basic research for self-reliance in science and technology." Optics Valley now hosts 5,000+ high-tech companies, targeting self-sufficiency within 4 years.
Asia-Pacific
Japan, Taiwan, and India are combining strengths rather than building everything domestically. Japan committed $25.7 billion to semiconductor development between 2022 and 2025, and TSMC opened its first overseas R&D facility there. India offers up to 50% capital support for photonics fabs and contributes 20% of global chip designers.
The Next Decade
Market projections vary wildly because the category spans everything from mature LED lightbulbs to emerging quantum computing systems. Mordor Intelligence projects growth from $1.75 trillion in 2025 to $2.39 trillion by 2030, while MarketsandMarkets forecasts $1.09 trillion to $1.48 trillion. This uncertainty matters because executives must commit billions in capital to technologies with decade-long development cycles.
2025-2026
The near-term focus is power efficiency. Traditional pluggable optical modules create 22 decibels of signal loss, requiring 30W per port to compensate. Co-packaged optics cuts power consumption by 3.5x. Ayar Labs' TeraPHY will deliver 8 Tb/s using UCIe standard packaging. In automotive, entry-level LiDAR drops to $200.
2027-2032
Quantum photonics moves from laboratory to commercial deployment. The market grows from $850 million in 2025 to $3.78 billion by 2030, with PsiQuantum partnering with GlobalFoundries to develop million-qubit systems by 2027. Unlike superconducting qubits requiring near-absolute-zero cooling, photonic qubits function at room temperature.
2032-2035+
The quantum market reaches $17.4 billion by 2035. Architectures combining analog, digital, quantum, photonic, and neuromorphic computing will require new transducer technologies, which means CTOs can no longer specialize in a single computing paradigm.
Energy demand accelerates all of this. Data center electricity consumption will reach 945 TWh by 2030, and photonics can reduce that by over 50% by 2035.
What This Means for Leadership
Each executive role faces a distinct version of the same problem: making decisions now about technologies that won't mature for years.
Chief Executive Officers
CEOs face timing decisions with no clear answer. Adopt co-packaged optics in 2025-2026 and risk immature technology. Wait until 2028 and watch competitors capture market share. Japan's $25.7 billion commitment means smaller firms now compete against sovereign capital.
Chief Technology Officers
CTOs must hold technical depth across incompatible domains. Silicon photonics, III-V materials, and thin-film lithium niobate each require different knowledge bases and supply chains. Most engineers specialize in one; photonics CTOs need working knowledge of all three while balancing 15-year development cycles against 2-year product roadmaps.
Chief Financial Officers
CFOs must model returns on infrastructure that doesn't exist yet. The 50% power reduction from photonics changes total cost of ownership calculations, but boards need convincing before savings materialize.
Corporate Boards
Boards face a knowledge gap that affects governance quality. Most members don't understand why quantum-neuromorphic-photonic convergence matters at the business level. Leadership transitions signal consolidation is underway: IPG Photonics replaced its CEO in June 2024, Lumentum in February 2025.
The Leadership Problem
Finding people who can run photonics companies is difficult because the field barely existed a decade ago. The technical knowledge lives in research labs. The business experience lives in traditional semiconductors. The people who combine both are rare.
The broader market reflects this scarcity: over 330 R&D vacancies appeared in the first half of 2025 alone. When technical roles are that hard to fill, executive searches require a global reach that most firms lack. In our searches, we regularly build single leadership teams by recruiting across China, Romania, Russia, the U.S., Germany, France, the UK, and India.
The companies that figure out leadership first will have an advantage that compounds over years.
About the Authors
Jan-Bart Smits is a Managing Partner at Stanton Chase Amsterdam. He serves as Global Subsector Leader for the Semiconductor industry and holds an M.Sc. in Astrophysics from Leiden University.
David Harap is a Managing Director at Stanton Chase Austin with over 25 years of executive search experience. A Cornell University graduate and Father Kelly Scholar, he lectures at the University of Texas at Austin.
