InnoPhase IoT

Most dropouts in crowded buildings come from nearby interference. One datasheet spec shows which chips can handle it. Key Takeaways Many Wi-Fi IoT dropouts in crowded buildings are caused by interference on neighboring channels, not by weak signal strength. Adjacent-channel rejection (ACR) measures how much stronger a neighboring signal can be than the wanted signal

Somewhere on your roadmap right now there’s a line item that says “Cyber Resilience Act (CRA) compliance” with no owner attached to it. Nobody’s sure if it’s a firmware task, a documentation task, or a procurement task — so it’s everyone’s problem and no one’s deliverable. Worse: most of what that line item requires was

Ask a firmware lead what actually worries them about a new wireless IoT SoC, and the answer is rarely “will it work.” It’s “how much of the stack do we have to build ourselves.” A chip selection decision doesn’t end when the datasheet checks every box. It ends when a firmware team can flash a

A battery-powered sensor is an easy sell: it checks in every so often, sends a tiny bit of data, and goes back to sleep. A battery-powered camera lives by a different, much less forgiving set of rules. It has to sit quietly for weeks, then the moment something actually happens — a person at the

How hostless architectures cut BOM cost and idle power by running the application where the radio already lives Open the schematic of a typical battery-powered Wi-Fi endpoint, and you’ll find an architecture that made sense fifteen years ago: a host microcontroller running the application, wired over SPI or UART to a wireless chip acting as

Analog IQ radio architectures haven’t scaled with Moore’s Law for 30 years, leaving the radio as the largest power drain in battery-powered IoT designs. InnoPhase IoT’s PolaRFusion™ digital polar architecture moves RF signal processing into digital CMOS — cutting radio power consumption by up to 65% and putting wireless back on the semiconductor scaling curve.