Power Electronics

Haptics might fly under the radar, but they form a major industry that offers serious user experience benefits to consumers. IDTechEx forecasts a US$7.1 billion market for haptic technology in 2035, with much of the growth in this market being fueled by the adoption of haptics in new classes of device.

Thursday 7 November 2024 - Which Technology Innovations Will Be Most Disruptive in the Global Sensor Market? An overview of meta-trends shaping the sensor market landscape; A summary of major market verticals, product types and leading technologies; Coverage of near-term trends in sensor technology development, adoption and integration - including the impact of AI on edge sensing; An overview of disruptive emerging sensor technologies recently commercialized, their value proposition, advantages and market challenges. This includes printed sensors, quantum sensors, emerging image sensors, biosensors, gas sensors and nanocarbon sensors; Case studies in fast growing markets for sensors technology, both established and emerging, such as future mobility, wearables and IoT (industrial, consumer and environmental); Initial ten-year forecasting insights and sensor market outlook for the next ten years

While sensors contribute just a fraction of the annual revenue generated by major electronics companies, sensor technology nevertheless represents a multi-billion-dollar global market.

Thursday 17 October - Overview of the major haptic actuator technology choices; Exploration of haptics technology innovations and developments; Highlighting expected stories in the haptics market for the next ten years; Adoption roadmaps for haptics technology

The capabilities of haptic feedback technologies have grown far beyond adding rumble to game controllers or silent notifications to cellphones. Market growth is expected to be chiefly driven by the growing adoption of haptics in non-traditional markets, particularly vehicle interiors.

Underlying the hype for SiC (silicon carbide) and the future potential of GaN (gallium nitride) for EV power electronics, challenges remain for both technologies. While OEMs, tier-one suppliers, and market analysts generally agree that SiC and GaN will eventually share the market with incumbent Si technologies, the exact roadmap and time scale remain uncertain. A development in its relative infancy that IDTechEx expects to boost overall performance, volume capabilities, and cost, are engineered substrates.

With the ever-increasing need for heat dissipation, high-performance thermal interface materials with higher thermal conductivity and other properties are becoming essential. Driven by this trend, a number of high-performance TIMs are emerging. This article primarily introduces the advantages and drawbacks of advanced carbon-based TIMs. However, it is worth noting that many other TIMs offer superior performance.

Efficiency is the key goal of electric vehicle development. This is especially true of power electronics, where one increasingly adopted approach is to integrate multiple functions into the same package. For automotive OEMs, this can result in reductions in overall weight to increase the efficiency of the vehicle while also reducing the cost of production.

Thermal interface materials (TIMs) are composed of thermal fillers and matrix materials. Thermal fillers are highly thermally conductive substances, while matrix materials are typically used to enhance mechanical properties.