Overview
Smallest and lowest power DSP for narrowband wireless communications and always-on applications
The Cadence® Tensilica® Fusion F1 DSP offers the lowest energy, small footprint, high-performance control and signal processing best fit for narrowband wireless communication, always-on, IoT, and wearables applications. The Fusion F1 DSP is very efficient in running communications standards typically associated with IoT device communications, such as Bluetooth LE, Thread, and Zigbee using IEEE 802.15.4, SmartGrid 802.15.4g, WiFi 802.11n and 802.11ah, 2G and LTE Category 0 release 12 and 13, and global navigation satellite systems (GNSS). The Fusion F1 DSP also is suitable for designs in voice trigger, voice recognition, face trigger, context-aware sensor fusion, and similar applications.
Learn more about DSP Core IP core
Cadence will bring AI-enabled electronic design automation, system design and analysis, and digital twin expertise to the DOE's AI-driven science initiative
Protecting processor memory alone is no longer sufficient. The entire I/O path must become part of the trusted computing architecture. To address this challenge, PCI-SIG® has developed a suite of complementary security technologies, including Data Object Exchange (DOE), Component Measurement and Authentication (CMA), Integrity and Data Encryption (IDE), and the TEE Device Interface Security Protocol (TDISP).
Raising 2026 Revenue Growth Outlook to 21% and Non-GAAP EPS to $8.40. Q3 Recurring Revenue Up 18% YoY, Record Backlog of $8.2 Billion
By integrating these models with reinforcement learning (RL) loops and its proven electronic design automation (EDA) and system design automation (SDA) tools, Cadence delivers a deeply integrated agentic engineering platform designed to improve results, accelerate time to market and continuously enhance performance through recursive self-improvement.
Physical AI systems must move large amounts of data across two very different connectivity domains. Accelerators and local storage need high-bandwidth, low-latency links close to the compute SoC, while sensors and control modules require reliable connectivity across the larger platform. Supporting both domains with separate high-speed PHYs can increase silicon area and integration complexity.