Wireless IP Cores for TSMC

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Wireless IP cores enable connectivity in modern SoC and ASIC designs, supporting communication standards such as Bluetooth, Wi-Fi, 5G/LTE, GNSS, and other RF technologies.

These IP cores are essential for applications requiring wireless communication, including IoT devices, mobile systems, automotive platforms, and industrial connectivity.

This catalog allows you to explore and compare wireless IP cores from leading vendors based on standard support, data rate, power consumption, and process node compatibility.

Whether you are designing for low-power IoT, high-speed wireless communication, or location-based services, you can find the right wireless IP for your system requirements.

 
All Wireless offers for TSMC
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Compare 25 Wireless IP Cores for TSMC from 9 vendors

What are Wireless IP cores?

Wireless IP cores are reusable semiconductor design blocks that enable radio-frequency (RF) communication in SoCs and ASICs. They implement standardized wireless protocols and provide connectivity between devices without physical connections.

These IP cores typically include baseband processing, protocol handling, and integration with RF front-end components to support reliable wireless communication.

Main types of Wireless IP

Bluetooth IP

Bluetooth IP provides short-range communication for IoT devices, wearables, and audio systems, with support for Bluetooth Low Energy (BLE) and Classic Bluetooth.

Wi-Fi IP

Wi-Fi IP cores enable high-speed wireless networking in consumer and enterprise devices, supporting standards such as Wi-Fi 5, Wi-Fi 6, and beyond.

Cellular IP (4G/5G/LTE)

Cellular IP cores support wide-area communication using LTE and 5G technologies, enabling connectivity for mobile devices, automotive systems, and IoT networks.

GNSS and positioning IP

GNSS IP enables location-based services using satellite systems such as GPS, Galileo, and BeiDou.

UWB and short-range RF IP

Ultra-Wideband (UWB) and other short-range RF IP cores provide precise positioning and secure communication for advanced applications.

Broadcast and specialized wireless IP

Some IP cores support broadcast standards and specialized wireless communication for niche applications such as media distribution and industrial systems.

How to choose a Wireless IP core

Selecting the right wireless IP depends on your application and connectivity requirements:

  • Supported wireless standard (Bluetooth, Wi-Fi, 5G, GNSS, etc.)
  • Data rate and latency requirements
  • Power consumption for battery-operated devices
  • RF performance and integration complexity
  • Compliance and certification requirements
  • Process node compatibility

Applications of Wireless IP cores

  • IoT and smart devices
  • Mobile and consumer electronics
  • Automotive connectivity
  • Industrial wireless systems
  • Location-based and tracking systems

Compare Wireless IP cores from leading vendors

This catalog provides access to a wide range of wireless IP cores from leading semiconductor IP providers.

Use filters to explore solutions by standard, performance, power efficiency, and integration requirements to find the best wireless IP for your design.

Frequently asked questions about Wireless IP cores

What is a wireless IP core?

A wireless IP core is a hardware block that enables radio-frequency communication in SoCs and ASICs, supporting standards such as Bluetooth, Wi-Fi, and cellular.

What types of wireless IP are available?

Wireless IP includes Bluetooth, Wi-Fi, cellular (LTE/5G), GNSS, UWB, and broadcast communication technologies.

What is the difference between Bluetooth and Wi-Fi IP?

Bluetooth is optimized for low-power, short-range communication, while Wi-Fi provides higher data rates and longer range for networking applications.

Where are wireless IP cores used?

They are used in IoT devices, smartphones, automotive systems, industrial applications, and location-based services.

How do I choose a wireless IP core?

You should consider supported standards, data rate, power consumption, RF performance, certification requirements, and integration constraints.

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