PLL IP Cores for GlobalFoundries

PLL IP cores (Phase-Locked Loop IP) are essential components in modern SoC, ASIC, and mixed-signal designs, enabling precise clock generation, frequency synthesis, and jitter reduction.

Phase-locked loop IP is widely used in applications such as high-speed interfaces (SerDes, PCIe, Ethernet), wireless communication, processors, and clock distribution networks.

This page allows you to compare PLL IP cores from leading vendors by frequency range, jitter performance, power consumption, process node compatibility, and supported use cases.

Whether you need a low-power PLL for IoT or a high-performance low-jitter PLL for high-speed data links, you can quickly identify the most suitable solution for your design.

 
All PLL offers for GlobalFoundries
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Compare 338 PLL IP Cores for GlobalFoundries from 12 vendors

What is a PLL IP core?

A PLL IP core (Phase-Locked Loop) is a reusable semiconductor design block used to generate stable and precise clock signals. It synchronizes an output signal with a reference clock by controlling the phase and frequency through a feedback loop.

PLL IP cores are fundamental in modern integrated circuits, enabling clock multiplication, frequency synthesis, and timing alignment across complex systems.

Types of PLL architectures

Analog PLL

Analog PLLs are widely used for their simplicity and low power consumption. They are suitable for general-purpose clock generation and are commonly integrated in microcontrollers, consumer electronics, and embedded systems.

Digital PLL (DPLL)

Digital PLLs offer improved programmability and scalability in advanced process nodes. They are increasingly used in SoCs and AI processors, where flexibility and integration are key requirements.

Fractional-N PLL

Fractional-N PLLs enable fine frequency resolution and are ideal for wireless communication systems, including 5G and RF transceivers.

Integer-N PLL

Integer-N PLLs provide simpler design and lower noise, making them suitable for low-jitter clock generation in high-performance applications.

Key parameters when choosing a PLL IP core

Selecting the right PLL IP depends on several critical design parameters:

  • Frequency range (MHz to GHz depending on application)
  • Jitter and phase noise performance
  • Lock time and stability
  • Power consumption
  • Process node compatibility (TSMC, GF, Samsung, etc.)
  • Area and integration constraints

Applications of PLL IP cores

PLL IP cores are used in a wide range of semiconductor applications:

  • High-speed interfaces (SerDes, PCIe, Ethernet)
  • Wireless and RF systems (5G, Wi-Fi, radar)
  • Processors and SoCs (clock generation and distribution)
  • Consumer electronics (audio, video, multimedia devices)
  • Automotive systems (ADAS, infotainment, connectivity)

Compare PLL IP cores from leading vendors

This catalog provides access to PLL IP cores from multiple semiconductor IP providers, enabling designers to compare solutions based on performance, power, and integration requirements.

Use filters to refine your search by vendor, process node, and technical specifications to find the best PLL IP for your application.

Frequently asked questions about PLL IP cores

What is a PLL used for?

A PLL is used for clock generation, synchronization, and frequency multiplication in digital and mixed-signal systems.

What is the difference between Integer-N and Fractional-N PLL?

Integer-N PLLs offer lower noise, while Fractional-N PLLs provide finer frequency resolution.

Where is PLL IP used?

It is used in semiconductor designs that require proven IP, efficient integration, and faster platform development across embedded, communication, computing, industrial, and automotive applications.

How do I choose PLL IP?

You should evaluate feature coverage, performance, power consumption, verification maturity, integration complexity, ecosystem fit, and process node compatibility.

Why use dedicated PLL IP instead of building it from scratch?

Using proven PLL IP reduces design effort, lowers technical risk, shortens schedules, and improves integration consistency across chip programs.

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