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Power Semiconductors

Navitas Semiconductor

A representative GaN power semiconductor player. AI datacenter power and the ramp-up of the GaN market are key themes.

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Articles about this company

Power semiconductor articles
news2026-05-17

GaN Market Moves: Navitas's Strong Earnings and India's First Mass Production Point to the Next Frontier

Navitas Semiconductor's Q1 2026 earnings beat expectations, driving a surge in its stock price, underscoring the market success of its GaN technology.

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longtail2026-05-14

AI Server Power Supplies: GaN Adoption Criteria

Deciding whether to adopt GaN in AI server power supply design isn't solely based on it being "next-generation technology"; it requires confirming GaN's clear advantages over SiC and Si along the three axes of switching frequency, power density, and thermal design.

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news2026-05-22

Infineon FY2026 Q2 Earnings — AI Data Center Power Semiconductors Drive Growth, Full-Year Guidance Raised

Raising full-year guidance is a decision semiconductor manufacturers handle with care. In an industry repeatedly caught off guard by inventory corrections and demand misreads, an upward revision to the outlook ripples not just through share prices but across the entire supply chain. Here is the context behind Infineon Technologies making that call in its FY2026 Q2 earnings report.

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pillar2026-05-22

Next-Generation Power Device Technology Outlook — Design and Procurement Strategies Beyond SiC and GaN

As SiC and GaN become mainstream for industrial and automotive power semiconductors, three next-generation candidates — Ga₂O₃ (gallium oxide), GaN-on-GaN (native substrate), and diamond semiconductors — are at the forefront of R&D. This article maps the technology maturity, mass-production timelines, and business impact of each material, and outlines the steps designers and procurement managers should take today.

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news2026-05-19

Cyient Announces India's First GaN Power ICs

Cyient has unveiled 650V GaN power ICs targeting AI, telecommunications, fast charging, and e-mobility applications. These ICs deliver improved power efficiency and contribute to enhanced performance in next-generation applications.

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pillar2026-05-16

GaN-on-Si and the Next Decade of Industrial Power Electronics

GaN-on-Si is displacing silicon in low-to-mid voltage applications below 650V. Having gained an early foothold in EV on-board chargers, this technology is now extending its reach into industrial motor control, telecom power supplies, and industrial UPS. This article examines adoption trends by application and the key procurement considerations.

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longtail2026-05-14

SiC vs. GaN for EV Applications: Choosing the Right Material

The adoption of 800V battery systems is accelerating, exemplified by the Porsche Taycan, Hyundai IONIQ 6, and Kia EV6, all of which have transitioned from traditional 400V architectures to double the voltage to shorten charging times and improve driving efficiency, a trend directly impacting power device selection, as evidenced by Si

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longtail2026-05-14

GaN Power Semiconductors: Benefits of Efficiency and Miniaturization

If you've ever wrestled with improving power conversion efficiency by a single point in inverter design, the numbers alone tell you what GaN (Gallium Nitride) has changed: while silicon MOSFETs hit a wall at tens of kHz switching frequencies, GaN handles up to several MHz, enabling smaller passive components (inductors, capacitors).

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pillar2026-05-14

Are IGBTs Still Relevant in the Age of SiC and GaN Silicon?

The long-heralded transition of power in the power conversion market is underway, with the SiC power device global market projected for rapid expansion towards the 2030s, and GaN adoption broadening from home appliances to data center power supplies. This raises the question about Silicon IGBTs...

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pillar2026-05-14

SiC and GaN Business Opportunities: Evaluation Criteria

SiC or GaN: The next-generation power semiconductor question, while frequently asked in the industry, is somewhat simplistic; though both are wide bandgap semiconductors, SiC and GaN differ in their optimal voltage ranges, switching domains, and cost structures, meaning the answer depends on the application, voltage range, and timeframe under consideration, rather than a simple 'which is superior' approach.

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