Since February, ADI’s price adjustments have strengthened overall expectations of price increases across the analog IC sector. At the same time, demand for many TI part numbers continues to rise. In the MCU market, conditions remain relatively stable, with no significant demand growth observed for traditional products from ST, NXP, and Microchip.
For power devices, lead times for MOSFETs, IGBTs, and diodes from onsemi, Infineon, and ST are extending. This is partly driven by substitution demand related to Nexperia parts. In addition, rising costs in 8-inch wafer foundry services and OSAT (assembly & testing) since the beginning of the year are expected to further transmit pricing pressure to finished IC products.
💾 Memory Market: Price increases continue across DDR3/4/5 DRAM, NAND/NOR Flash, eMMC modules, and SSD products. AI-driven demand is intensifying the structural supply-demand imbalance in the memory market. As a result, institutions have revised upward their expectations for memory price growth [...]
Electronics design is a highly complex process that goes far beyond meeting technical specs or staying within budget and deadlines. Every component on a bill of materials (BOM) has a distinct function and plays a crucial role in the performance and manufacturability of the final product.
Engineers and designers don’t make these decisions lightly, but when time is tight, it can be difficult to account for every variable. The key is striking a balance between technical performance and practical sourcing.
Let’s explore five critical factors that engineers and designers consider when selecting electronic components.
1. Start with Parametric SearchThe component selection process begins with efficient searching. Parametric search tools—like those on ICnets—help you narrow down thousands of options by filtering parts based on detailed specifications and categories.
You can start by entering key product attributes and then refine your list using parameters that align with your design goals. This [...]
Imagine a world where humanoid robots assist in homes, factories, and offices, transforming how we live and work. This vision is closer than you think, with the global humanoid robot market poised to tap into a staggering $60 trillion total addressable market (TAM), equivalent to global GDP. A recent Morgan Stanley report, The Humanoid 100: Mapping the Humanoid Robot Value Chain (February 6, 2025), dives into this transformative industry, spotlighting 100 public companies driving the rise of “Embodied AI”—artificial intelligence brought to life in physical form.
What Is the Humanoid 100?The Humanoid 100 is Morgan Stanley’s curated list of global companies shaping the humanoid robot ecosystem. From semiconductor giants to industrial component manufacturers and full-fledged robot developers, these firms are at the forefront of a technological revolution. The list isn’t exhaustive but serves as a starting point for investors and enthusiasts eager to explore this rapidly evolving field.
Key takeaways from [...]
Introduction
Reliable localization and precise navigation are critical for autonomous robots. Whether navigating warehouses, exploring disaster zones, or assisting in surgery, robots need to know where they are and how to reach their destinations accurately. While GPS works well outdoors, it’s often unavailable or unreliable indoors and in complex environments. This is where inertial measurement units (IMUs) come in.
An IMU is a self-contained system that measures a robot’s acceleration and angular velocity. By processing this data, a robot can estimate its position and orientation, providing a crucial complement to other localization methods. This article explores how IMUs enhance robot localization and enable precise navigation, delving into the underlying principles, common challenges, and advanced techniques.
Understanding IMUs
An IMU typically consists of two main components:
- Accelerometer: Measures linear acceleration along three orthogonal axes.
- Gyroscope: Measures angular velocity around three orthogonal axes.
How IMUs Work
[...]Introduction
Reliable localization and precise navigation are critical for autonomous robots. Whether navigating warehouses, exploring disaster zones, or assisting in surgery, robots need to know where they are and how to reach their destinations accurately. While GPS works well outdoors, it’s often unavailable or unreliable indoors and in complex environments. This is where inertial measurement units (IMUs) come in.
An IMU is a self-contained system that measures a robot’s acceleration and angular velocity. By processing this data, a robot can estimate its position and orientation, providing a crucial complement to other localization methods. This article explores how IMUs enhance robot localization and enable precise navigation, delving into the underlying principles, common challenges, and advanced techniques.
Understanding IMUs
An IMU typically consists of two main components:
- Accelerometer: Measures linear acceleration along three orthogonal axes.
- Gyroscope: Measures angular velocity around three orthogonal axes.
How IMUs Work
[...]