What are Sensor and Monitor IP cores?

Sensor and monitor IP cores are reusable semiconductor design blocks used to measure internal or external conditions in integrated circuits and electronic systems. They help designers monitor key parameters such as temperature, supply voltage, current, process variation, and other analog signals that affect performance, safety, and reliability.

These IP cores are especially important in modern SoCs and ASICs because they provide real-time visibility into system behavior and support features such as thermal management, power control, fault detection, and predictive maintenance.

Main types of Sensor and Monitor IP

Temperature Sensor IP

Temperature sensor IP is used to monitor die temperature and support thermal protection mechanisms. It is widely integrated in processors, automotive chips, battery-powered systems, and industrial electronics where overheating must be detected early.

Voltage and Power Monitor IP

Voltage monitor IP and power monitoring IP cores track supply conditions and help maintain stable operation. They are critical in power-sensitive applications, including low-power SoCs, data center devices, and safety-critical automotive platforms.

Current Monitor IP

Current monitor IP enables measurement of power consumption and load behavior, helping optimize energy efficiency and identify abnormal system activity.

Process Monitor IP

Process monitor IP is used to evaluate process, voltage, and temperature conditions across silicon. These blocks help calibration, adaptive control, and performance tuning in advanced nodes.

Sensor Interface and Analog Front-End IP

Some designs require complete sensor interface IP or analog front-end functions to connect external sensors and condition their signals before digital processing. These solutions are commonly used in industrial, medical, consumer, and IoT systems.

How to choose Sensor and Monitor IP

The right sensor or monitor IP depends on the application and the monitoring objectives. Important criteria include:

• Measured parameter such as temperature, voltage, current, or process variation
• Accuracy and resolution requirements
• Response time and sampling behavior
• Power consumption and area constraints
• Process node and foundry compatibility
• Integration with safety, calibration, or control systems

Applications of Sensor and Monitor IP cores

Sensor and monitor IP cores are used in many semiconductor applications:

• Automotive electronics for thermal monitoring, safety control, and battery systems
• Industrial electronics for diagnostics, reliability, and predictive maintenance
• Consumer devices for power efficiency and thermal management
• IoT systems for environmental sensing and low-power operation
• Processors and AI accelerators for adaptive power and thermal control

Compare Sensor and Monitor IP cores from leading vendors

This catalog helps you explore and compare sensor and monitor IP cores from leading semiconductor IP providers. Use filters to identify solutions by vendor, technology, process node, and monitoring function.

Comparing available IP helps you choose the best solution for system reliability, power optimization, and real-time monitoring in your next SoC or ASIC design.

What are AI and ML accelerator IP cores?

AI and machine learning accelerator IP cores are dedicated hardware blocks that accelerate the execution of neural networks and data-intensive algorithms. They are integrated into SoCs and ASICs to deliver higher performance and better energy efficiency than general-purpose CPUs.

These IP cores are optimized for tasks such as matrix multiplication, convolution, and tensor processing, which are fundamental operations in deep learning models.

Main types of AI accelerator IP

Neural Processing Units (NPU)

NPUs are specialized processors designed specifically for neural network workloads. They are widely used in edge devices, smartphones, and automotive systems for real-time AI inference.

Vision AI accelerators

Vision AI IP cores are optimized for computer vision tasks such as image recognition, object detection, and video analytics. These accelerators are commonly used in surveillance, automotive, and robotics applications.

DSP-based AI acceleration

Some AI workloads are executed on DSP-based accelerators, which offer flexibility and efficiency for signal processing and machine learning tasks.

Data center and high-performance AI accelerators

High-performance AI IP cores are designed for data center and cloud computing environments, supporting large-scale neural network inference and high-throughput workloads.

Key parameters when choosing AI/ML accelerator IP

Selecting the right AI IP core requires evaluating several important factors:

• Performance (TOPS, latency, throughput)
• Power efficiency (TOPS/W)
• Supported neural network models (CNN, RNN, transformers)
• Software ecosystem and framework compatibility (TensorFlow, PyTorch, ONNX)
• Scalability and configurability
• Process node compatibility and silicon area

Applications of AI and ML accelerator IP

AI accelerator IP cores are used in a wide range of applications:

• Edge AI devices (smart cameras, IoT, wearables)
• Automotive systems (ADAS, autonomous driving)
• Consumer electronics (smartphones, AR/VR devices)
• Industrial automation (robotics, predictive maintenance)
• Data centers and cloud computing

Compare AI/ML accelerator IP cores from leading vendors

This catalog provides access to a broad range of AI and machine learning IP cores from leading semiconductor IP providers.

Use filters to explore solutions based on performance, power consumption, target application, and technology node, and identify the best accelerator IP for your design.

What is a Network-on-Chip (NoC) IP core?

A Network-on-Chip (NoC) IP core is a scalable interconnect architecture used to connect multiple components داخل a System-on-Chip (SoC), including CPUs, GPUs, accelerators, memory controllers, and peripherals.

Unlike traditional bus-based interconnects, NoC IP uses packet-based communication and network topologies to provide high bandwidth, low latency, and efficient data transfer across complex chips.

Main NoC architectures and topologies

Mesh topology

Mesh NoC architectures are widely used in large SoCs and AI processors. They provide scalability and balanced communication across multiple nodes.

Ring topology

Ring-based NoC offers a simpler design and can be efficient for moderate-size systems with predictable traffic patterns.

Star and hierarchical NoC

Hierarchical NoC architectures combine multiple topologies to optimize performance, power, and scalability in complex SoC designs.

Custom and hybrid NoC architectures

Advanced designs often use custom NoC architectures tailored to specific workloads such as AI, networking, or high-performance computing.

Key features of NoC IP cores

• High bandwidth and scalable interconnect performance
• Low latency communication between system components
• Quality of Service (QoS) for traffic prioritization
• Power-efficient data transfer
• Support for multiple protocols (AXI, CHI, etc.)

How to choose a NoC IP core

Selecting the right NoC IP depends on system architecture and workload requirements:

• Topology and scalability based on number of cores and components
• Bandwidth and latency requirements
• Traffic patterns and data flow characteristics
• Power and area constraints
• Protocol compatibility and integration complexity

Applications of NoC IP cores

• AI and machine learning processors
• Multicore CPUs and GPUs
• Networking and data center chips
• Automotive and embedded systems
• High-performance computing (HPC)

Compare NoC IP cores from leading vendors

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

Use filters to compare solutions based on topology, performance, power efficiency, and integration requirements to find the best interconnect architecture for your SoC.

What is a GPU IP core?

A GPU IP core is a reusable hardware block designed to accelerate graphics processing and parallel computation in SoCs and ASICs. It handles tasks such as image rendering, video processing, and increasingly AI and compute workloads.

GPU IP cores are optimized for massively parallel operations, making them essential for modern applications that require high throughput and efficient data processing.

Main types of GPU IP cores

Embedded GPU IP

Embedded GPU IP is used in mobile devices, consumer electronics, and IoT systems to provide efficient graphics rendering with low power consumption.

Automotive GPU IP

Automotive-grade GPU IP is designed for reliability and safety, supporting applications such as digital dashboards, infotainment systems, and advanced driver-assistance systems (ADAS).

Compute-oriented GPU IP

Some GPU IP cores are optimized for general-purpose compute (GPGPU), enabling acceleration of parallel workloads such as AI inference, image processing, and scientific computing.

Key features of GPU IP cores

• Parallel processing architecture for high throughput
• Support for graphics APIs such as OpenGL, Vulkan, and DirectX
• Energy-efficient performance for embedded systems
• Scalability across different performance levels
• Integration with display and video pipelines

How to choose a GPU IP core

Selecting the right GPU IP depends on your target application and design constraints:

• Performance requirements (graphics throughput, compute capability)
• Power consumption and thermal constraints
• Supported APIs and software ecosystem
• Target application (mobile, automotive, industrial, AI)
• Process node compatibility and silicon area

Applications of GPU IP cores

• Mobile devices (smartphones, tablets)
• Automotive systems (infotainment, digital cockpit, ADAS)
• Consumer electronics (smart TVs, AR/VR devices)
• Industrial systems (visualization, HMI)
• AI and compute acceleration

Compare GPU IP cores from leading vendors

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

Use filters to compare solutions based on performance, power efficiency, API support, and integration requirements to find the best GPU IP for your design.

What are chiplet and die-to-die IP cores?

Chiplet and die-to-die IP cores are specialized interconnect solutions that enable communication between multiple silicon dies داخل a single package. They are a key enabler of chiplet-based design and advanced packaging technologies.

These IP cores allow designers to partition complex systems into smaller dies, improving yield, scalability, and flexibility while maintaining high performance.

Main chiplet interconnect standards

UCIe (Universal Chiplet Interconnect Express)

UCIe is an emerging industry standard that enables interoperable die-to-die communication across chiplets from different vendors. It supports high bandwidth, low latency, and scalable system integration.

Bunch of Wires (BoW)

BoW is a simpler die-to-die interface standard designed for short-reach communication with low complexity and power consumption.

Proprietary die-to-die interfaces

Many vendors offer custom chiplet interconnect IP optimized for specific performance, power, or packaging requirements.

Key features of chiplet interconnect IP

• High bandwidth communication between dies
• Low latency for performance-critical applications
• Scalability across multiple chiplets
• Support for advanced packaging (2.5D, 3D integration)
• Energy-efficient data transfer

How to choose a chiplet or die-to-die IP core

Selecting the right IP depends on system architecture and packaging constraints:

• Supported standard (UCIe, BoW, or proprietary)
• Bandwidth and latency requirements
• Packaging technology (2.5D, 3D, interposer)
• Power consumption and thermal considerations
• Integration complexity and ecosystem support

Applications of chiplet and die-to-die IP

• AI and machine learning accelerators
• Data center processors
• High-performance computing (HPC)
• Networking and telecom systems
• Advanced heterogeneous SoCs

Compare chiplet and die-to-die IP cores from leading vendors

This catalog provides access to a wide range of chiplet and die-to-die IP cores from leading semiconductor IP providers.

Use filters to compare solutions based on performance, power efficiency, standard support, and integration requirements to find the best interconnect for your chiplet architecture.

What is a Root of Trust IP core?

A Root of Trust (RoT) IP core is a secure hardware component that forms the foundation of a system’s security architecture. It ensures that only trusted software and firmware are executed, starting from the initial boot process.

Root of Trust IP cores provide critical functions such as secure boot, key management, cryptographic operations, and system attestation.

Key components of a hardware Root of Trust

Secure boot

Secure boot ensures that the system starts only with authenticated and trusted firmware, preventing execution of malicious or unauthorized code.

Hardware key storage

Secure storage mechanisms protect cryptographic keys from extraction or tampering, often using techniques such as eFuses, PUFs, or secure memory.

Cryptographic engines

Root of Trust IP often integrates encryption, hashing, and digital signature capabilities to support authentication and data protection.

Device identity and attestation

Device authentication and attestation mechanisms verify the identity and integrity of a device, enabling secure communication and trusted system operation.

How to choose a Root of Trust IP core

Selecting the right Root of Trust IP depends on your security requirements and application domain:

• Supported security features (secure boot, key storage, attestation)
• Compliance and certification (FIPS, Common Criteria, automotive standards)
• Cryptographic algorithm support
• Integration with system architecture
• Performance and power constraints

Applications of Root of Trust IP cores

• Automotive systems (secure ECUs, ADAS)
• IoT devices (secure connectivity and firmware updates)
• Mobile devices (trusted execution and data protection)
• Data centers (hardware security modules and secure boot chains)
• Industrial systems (secure control and monitoring)

Compare Root of Trust IP cores from leading vendors

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

Use filters to compare solutions based on security features, performance, certification support, and integration requirements to find the best IP for your system.

What is a Bluetooth IP core?

A Bluetooth IP core is a reusable hardware block that implements Bluetooth wireless communication protocols in SoCs and ASICs. It enables short-range data exchange between devices using standardized Bluetooth technologies.

Bluetooth IP cores typically include baseband processing, protocol stack support, and integration with RF front-end components.

Main types of Bluetooth IP

Bluetooth Low Energy (BLE) IP

BLE IP is optimized for ultra-low power consumption and is widely used in IoT devices, wearables, and healthcare applications. It supports efficient communication for sensors and battery-powered devices.

Bluetooth Classic IP

Bluetooth Classic is used for higher data rate applications such as audio streaming, headsets, and consumer electronics.

Dual-mode Bluetooth IP

Dual-mode IP supports both BLE and Classic Bluetooth, enabling flexibility for devices that require both low-power and high-throughput communication.

Key features of Bluetooth IP cores

• Low power consumption for battery-operated devices
• Support for Bluetooth standards (BLE, Classic, latest specifications)
• Secure communication and encryption support
• Integration with RF front-end
• Compliance with Bluetooth SIG specifications

How to choose a Bluetooth IP core

Selecting the right Bluetooth IP depends on your application and system constraints:

• Required protocol (BLE, Classic, or dual-mode)
• Power consumption and battery life targets
• Data rate and latency requirements
• Security features
• Process node compatibility and integration complexity

Applications of Bluetooth IP cores

• Wearables (smartwatches, fitness trackers)
• Audio devices (headphones, speakers)
• Smart home and IoT
• Automotive connectivity
• Industrial wireless systems

Compare Bluetooth IP cores from leading vendors

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

Use filters to compare solutions based on power efficiency, protocol support, performance, and integration requirements to find the best Bluetooth IP for your design.

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.

What are compute and acceleration IP cores?

Compute and acceleration IP cores are reusable hardware blocks that accelerate specific workloads in SoCs and ASICs. They are designed to handle compute-intensive tasks more efficiently than general-purpose processors.

By offloading critical functions from CPUs, these IP cores improve performance, reduce power consumption, and enable advanced features in modern electronic systems.

Main types of compute and acceleration IP

AI and Machine Learning accelerators

AI accelerator IP includes neural processing units (NPUs) and specialized hardware for running deep learning models efficiently.

DSP and signal processing IP

Digital signal processing (DSP) IP is used for audio, communications, and real-time data processing applications.

Video and image processing IP

These IP cores accelerate video encoding/decoding, image processing, and multimedia workloads.

Cryptography and security acceleration

Crypto accelerators provide high-performance encryption, hashing, and secure data processing for security-critical applications.

Reconfigurable compute (eFPGA)

eFPGA IP allows dynamic reconfiguration of hardware logic, providing flexibility for evolving workloads and applications.

Key features of compute IP cores

• High performance for compute-intensive workloads
• Energy efficiency compared to general-purpose CPUs
• Specialized architectures for targeted applications
• Scalability across different performance levels
• Integration with system architecture

How to choose a compute or acceleration IP core

Selecting the right IP depends on your application and performance requirements:

• Target workload (AI, DSP, video, crypto, etc.)
• Performance requirements (throughput, latency)
• Power and thermal constraints
• Software ecosystem and tool support
• Process node compatibility

Applications of compute and acceleration IP

• AI and machine learning systems
• Automotive and ADAS applications
• Consumer electronics
• Industrial automation
• Data centers and cloud computing

Compare compute and acceleration IP cores from leading vendors

This catalog provides access to a wide range of compute and acceleration IP cores from leading providers.

Use filters to compare solutions based on performance, power efficiency, flexibility, and integration requirements.

What are graphics and vision IP cores?

Graphics and vision IP cores are reusable hardware blocks used to process, analyze, and render visual data in SoCs and ASICs. They enable efficient handling of images, video streams, and graphical interfaces.

These IP cores are optimized for high-throughput visual workloads and are essential for modern applications involving display systems, camera processing, and AI-based vision.

Main types of graphics and vision IP

GPU IP cores

GPU IP accelerates graphics rendering and parallel processing, supporting applications such as user interfaces, gaming, and compute workloads.

Image Signal Processor (ISP) IP

ISP IP processes raw data from image sensors, performing tasks such as noise reduction, color correction, and image enhancement.

Video codec IP

Video codec IP handles video encoding and decoding, supporting standards such as H.264, H.265/HEVC, and AV1.

Computer vision and AI vision IP

Vision processing IP accelerates tasks such as object detection, image recognition, and video analytics, often in combination with AI accelerators.

Key features of graphics and vision IP cores

• High-throughput image and video processing
• Support for high resolutions (HD, 4K, 8K)
• Energy-efficient processing for embedded systems
• Integration with display and camera pipelines
• Compatibility with AI and compute acceleration

How to choose graphics and vision IP

Selecting the right IP depends on your application and performance requirements:

• Type of workload (graphics rendering, video, vision processing)
• Resolution and frame rate requirements
• Power and area constraints
• Software and API support
• Integration with other system components

Applications of graphics and vision IP

• Mobile and consumer electronics
• Automotive systems (ADAS, digital cockpit)
• Surveillance and security systems
• Industrial vision and robotics
• AR/VR and multimedia applications

Compare graphics and vision IP cores from leading vendors

This catalog provides access to a wide range of graphics and vision IP cores from leading providers.

Use filters to compare solutions based on performance, power efficiency, resolution support, and integration requirements.

What are interface and connectivity IP cores?

Interface and connectivity IP cores are reusable hardware blocks that enable data exchange between components within a chip or across systems. They are essential for integrating processors, memory, peripherals, and external devices in SoCs and ASICs.

These IP cores implement standardized communication protocols and ensure reliable, high-performance data transfer across different parts of a system.

Main types of interface and connectivity IP

High-speed serial interfaces

High-speed serial IP supports standards such as PCIe, Ethernet, USB, and SerDes-based communication for high-bandwidth data transfer.

On-chip interconnect (NoC and bus IP)

On-chip interconnect IP such as Network-on-Chip (NoC) and bus architectures enable communication between cores, memory, and peripherals within a chip.

Chiplet and die-to-die interfaces

Chiplet interconnect IP enables communication between multiple dies in advanced packaging architectures using standards such as UCIe.

Low-speed and control interfaces

Control interface IP includes protocols such as I2C, SPI, UART, and other low-speed communication standards used for configuration and control.

Key features of connectivity IP cores

• High bandwidth and low latency communication
• Support for industry standards
• Scalability across different system architectures
• Power-efficient data transfer
• Robust integration with SoC components

How to choose interface and connectivity IP

Selecting the right connectivity IP depends on system requirements:

• Supported protocol (PCIe, Ethernet, NoC, etc.)
• Bandwidth and latency requirements
• Power consumption and area constraints
• Compatibility with system architecture
• Compliance and ecosystem support

Applications of interface and connectivity IP

• Data center and cloud computing
• High-performance computing (HPC)
• Automotive systems
• Consumer electronics
• Industrial and embedded systems

Compare interface and connectivity IP cores from leading vendors

This catalog provides access to a wide range of interface and connectivity IP cores from leading providers.

Use filters to compare solutions based on performance, protocol support, power efficiency, and integration requirements.

What are memory IP cores?

Memory IP cores are reusable hardware blocks that provide data storage and memory management capabilities in SoCs and ASICs. They are essential for storing instructions, data, and intermediate processing results.

Memory IP includes both embedded memory blocks integrated داخل the chip and controllers that manage communication with external memory devices.

Main types of memory IP

Embedded SRAM IP

SRAM IP provides fast, low-latency memory used for caches, buffers, and high-speed data storage داخل SoCs.

ROM and non-volatile memory IP

ROM, Flash, and EEPROM IP provide non-volatile storage for firmware, configuration data, and persistent system information.

DRAM controller IP

DRAM controller IP manages communication with external memory such as DDR and LPDDR, enabling high-capacity storage for advanced applications.

Specialized memory IP

Some IP cores are optimized for specific use cases such as low-power memory, high-density storage, or automotive-grade reliability.

Key features of memory IP cores

• High-speed data access and low latency
• Optimized power consumption
• Scalability across different memory sizes and configurations
• Support for industry standards (DDR, LPDDR, etc.)
• Reliability and data integrity features (ECC, redundancy)

How to choose a memory IP core

Selecting the right memory IP depends on your application and system constraints:

• Memory type (SRAM, Flash, EEPROM, DRAM)
• Capacity and density requirements
• Performance (latency, bandwidth)
• Power consumption
• Process node compatibility
• Reliability and safety requirements

Applications of memory IP cores

• High-performance computing
• Mobile and consumer electronics
• Automotive systems
• Industrial and embedded systems
• IoT devices

Compare memory IP cores from leading vendors

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

Use filters to compare solutions based on performance, power efficiency, density, and integration requirements.

What are security IP cores?

Security IP cores are reusable hardware blocks that provide protection mechanisms in SoCs and ASICs. They secure data, communications, and system operations against threats such as unauthorized access, tampering, and cyberattacks.

Hardware-based security is essential because it offers stronger protection than software-only approaches, forming the foundation of trusted systems.

Main types of security IP

Root of Trust IP

Root of Trust IP establishes a secure foundation for system operation, enabling features such as secure boot, device authentication, and firmware verification.

Cryptographic IP

Cryptographic IP implements algorithms such as AES, RSA, ECC, and hashing functions to ensure data confidentiality and integrity.

Random Number Generator (RNG) IP

RNG IP provides high-quality random numbers used for cryptographic operations, including true random number generators (TRNG) and deterministic generators (DRBG).

Secure element and HSM IP

Secure element and Hardware Security Module (HSM) IP provide isolated environments for secure key storage and cryptographic processing.

Authentication and anti-tamper IP

These IP cores protect against physical and logical attacks, enabling secure device identity and system integrity.

Key features of security IP cores

• Strong encryption and authentication
• Secure key storage and management
• Protection against physical and cyber attacks
• Compliance with industry standards (FIPS, Common Criteria)
• Integration with system security architecture

How to choose security IP

Selecting the right security IP depends on your application and threat model:

• Required security features (encryption, secure boot, RNG, etc.)
• Certification and compliance requirements
• Performance and latency
• Power and area constraints
• Integration with system architecture

Applications of security IP cores

• IoT and connected devices
• Automotive systems (secure ECUs, ADAS)
• Mobile and consumer electronics
• Industrial systems
• Data centers and cloud infrastructure

Compare security IP cores from leading vendors

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

Use filters to compare solutions based on security capabilities, performance, certification support, and integration requirements.

What are system peripheral IP cores?

System peripheral IP cores are reusable hardware blocks that provide control and support functions in SoCs and ASICs. They manage data movement, timing, interrupts, and communication between system components.

These IP cores are critical for ensuring efficient system operation, coordination between processing units, and reliable interaction with external devices.

Main types of system peripheral IP

Timers and counters

Timer IP is used for scheduling, event timing, and system control functions in embedded systems.

DMA controller IP

Direct Memory Access (DMA) IP enables high-speed data transfers between memory and peripherals without CPU intervention, improving system performance and efficiency.

GPIO IP

General-purpose input/output (GPIO) IP provides flexible interfaces for connecting external devices and sensors.

Interrupt controller IP

Interrupt controller IP manages and prioritizes interrupt signals, ensuring responsive system behavior.

Watchdog timer IP

Watchdog IP monitors system operation and triggers recovery actions in case of faults or system failures.

Key features of system peripheral IP cores

• Efficient system control and coordination
• Low power consumption for embedded applications
• Scalability across different system architectures
• Flexible configuration options
• Integration with processors and interconnects

How to choose system peripheral IP

Selecting the right peripheral IP depends on system requirements:

• Required functionality (DMA, GPIO, timers, etc.)
• Performance and latency requirements
• Power consumption constraints
• Compatibility with system architecture
• Ease of integration and configurability

Applications of system peripheral IP cores

• Embedded systems
• Automotive electronics
• Industrial control systems
• Consumer electronics
• IoT devices

Compare system peripheral IP cores from leading vendors

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

Use filters to compare solutions based on functionality, performance, power efficiency, and integration requirements.

What are Test and DFT IP cores?

Test and Design for Testability (DFT) IP cores are reusable hardware blocks that enable efficient testing of SoCs and ASICs during development and manufacturing.

They improve fault detection, test coverage, and yield while reducing test time and cost.

Main types of DFT IP

Scan chain IP

Scan IP enables controllability and observability of internal registers, allowing effective fault detection through scan-based testing.

Built-In Self-Test (BIST)

BIST IP allows circuits to test themselves, including memory BIST (MBIST) and logic BIST (LBIST), reducing reliance on external test equipment.

Boundary scan (JTAG)

Boundary scan IP (IEEE 1149.x) enables testing of interconnects and board-level connectivity.

Test compression IP

Test compression IP reduces test data volume and test time, improving manufacturing efficiency.

ATPG and test control IP

Advanced DFT solutions include support for Automatic Test Pattern Generation (ATPG) and centralized test control architectures.

Key features of DFT IP cores

• High fault coverage for improved product quality
• Reduced test time and cost
• Support for industry standards (JTAG, IEEE 1500, etc.)
• Scalable architectures for complex SoCs
• Integration with design and verification flows

How to choose DFT IP

Selecting the right DFT IP depends on your design and manufacturing requirements:

• Target fault coverage and test quality
• Test time and cost constraints
• Design complexity and size
• Compatibility with EDA tools and flows
• Compliance with industry standards

Applications of DFT IP cores

• High-volume semiconductor manufacturing
• Automotive and safety-critical systems
• Consumer electronics
• Industrial and embedded systems
• Advanced node SoCs

Compare DFT IP cores from leading vendors

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

Use filters to compare solutions based on coverage, test efficiency, area overhead, and integration requirements.

What is eFPGA IP?

eFPGA (embedded FPGA) IP is a reconfigurable hardware block integrated داخل a SoC or ASIC, allowing designers to implement custom logic that can be updated after manufacturing.

This flexibility enables rapid adaptation to new standards, bug fixes, and evolving application requirements without redesigning the entire chip.

Key advantages of eFPGA IP

Post-silicon flexibility

eFPGA IP allows hardware functionality to be updated or modified after chip fabrication, extending product lifetime and adaptability.

Hardware acceleration

eFPGA enables acceleration of specific workloads such as AI inference, signal processing, and custom algorithms.

Reduced development risk

Designers can implement and refine features post-silicon, reducing risk associated with fixed-function hardware.

Customization and differentiation

eFPGA allows companies to differentiate their products by implementing proprietary logic داخل the chip.

Key features of eFPGA IP cores

• Reconfigurable logic fabric
• Scalable logic density
• Integration with SoC interconnect
• Support for custom hardware acceleration
• Toolchain and software support

How to choose an eFPGA IP core

Selecting the right eFPGA IP depends on your application needs:

• Logic capacity and density
• Performance and latency requirements
• Power consumption
• Toolchain and development ecosystem
• Process node compatibility

Applications of eFPGA IP

• AI and machine learning acceleration
• Networking and data processing
• Automotive and embedded systems
• Industrial and IoT applications
• Prototyping and hardware customization

Compare eFPGA IP cores from leading vendors

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

Use filters to compare solutions based on logic density, performance, power efficiency, and integration requirements.

What are memory interface IP cores?

Memory interface IP cores are reusable hardware blocks that manage communication between a processor or SoC and external memory devices. They ensure efficient data transfer, synchronization, and protocol compliance.

These IP cores typically consist of a memory controller and a PHY layer, working together to provide reliable and high-performance memory access.

Main types of memory interface IP

DDR and LPDDR controller IP

DDR and LPDDR controller IP manages communication with external DRAM memory, handling scheduling, refresh, and data integrity.

Memory PHY IP

PHY IP provides the physical interface to memory devices, ensuring signal integrity, timing accuracy, and high-speed data transfer.

HBM and high-bandwidth memory interfaces

HBM IP supports high-bandwidth memory used in AI accelerators and high-performance computing systems.

Specialized memory interfaces

Some IP cores support specialized memory standards and custom interfaces optimized for specific applications and performance targets.

Key features of memory interface IP cores

• High data rates and bandwidth
• Low latency memory access
• Support for industry standards (DDR, LPDDR, HBM)
• Advanced signal integrity and timing control
• Power-efficient operation

How to choose a memory interface IP

Selecting the right IP depends on system performance and memory requirements:

• Supported memory standard (DDR, LPDDR, HBM)
• Data rate and bandwidth requirements
• Power consumption
• PHY and controller integration
• Process node compatibility

Applications of memory interface IP cores

• High-performance computing (HPC)
• AI and machine learning accelerators
• Mobile and consumer electronics
• Data center systems
• Automotive and embedded systems

Compare memory interface IP cores from leading vendors

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

Use filters to compare solutions based on performance, power efficiency, supported standards, and integration requirements.

What are audio interface IP cores?

Audio interface IP cores are reusable hardware blocks that enable the transfer of digital audio data between components داخل a SoC or between chips.

They ensure synchronized, low-latency communication between audio sources, processors, and output devices such as speakers and headphones.

Main types of audio interface IP

I2S (Inter-IC Sound) IP

I2S IP is a widely used standard for transmitting digital audio between integrated circuits, commonly used in consumer electronics and embedded systems.

TDM (Time Division Multiplexing) IP

TDM IP allows multiple audio channels to be transmitted over a single interface, making it suitable for multi-channel audio systems.

PDM (Pulse Density Modulation) IP

PDM IP is commonly used for digital microphones, enabling efficient audio data capture in low-power systems.

SoundWire and advanced audio interfaces

SoundWire IP and other advanced interfaces support scalable, low-power audio communication for modern devices.

Key features of audio interface IP cores

• Low-latency audio data transfer
• Support for multiple audio channels
• Synchronization and clock management
• Low power consumption
• Compatibility with audio codecs and processors

How to choose an audio interface IP

Selecting the right audio interface IP depends on system requirements:

• Supported audio standard (I2S, TDM, PDM, SoundWire)
• Number of audio channels
• Latency and synchronization requirements
• Power consumption
• Integration with audio subsystems

Applications of audio interface IP cores

• Consumer electronics (smartphones, audio devices)
• Automotive infotainment systems
• IoT and smart home devices
• Industrial audio systems
• Voice and speech processing applications

Compare audio interface IP cores from leading vendors

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

Use filters to compare solutions based on performance, power efficiency, channel support, and integration requirements.

What are power management IP cores?

Power management IP cores are reusable analog and mixed-signal blocks that regulate, distribute, and optimize power داخل SoCs and ASICs. They ensure stable operation, improve energy efficiency, and extend battery life in electronic systems.

These IP cores play a critical role in managing voltage levels, current consumption, and power sequencing across different system components.

Main types of power management IP

Voltage regulator IP (LDO)

LDO (Low Dropout Regulator) IP provides stable output voltage with low noise, making it suitable for sensitive analog and RF circuits.

DC-DC converter IP

DC-DC converter IP efficiently converts voltage levels, enabling high power efficiency in battery-powered and high-performance systems.

Battery management IP

Battery management IP monitors and controls battery charging, discharging, and protection, ensuring safe and efficient operation.

Power monitoring and control IP

These IP cores measure voltage, current, and power consumption, enabling dynamic power management and optimization.

Power sequencing and reset IP

Power sequencing IP ensures proper startup and shutdown order of system components, improving reliability and preventing damage.

Key features of power management IP cores

• High efficiency and low power loss
• Stable voltage regulation
• Low noise operation
• Support for multiple power domains
• Integration with system control logic

How to choose power management IP

Selecting the right power management IP depends on system requirements:

• Power efficiency and performance
• Voltage and current requirements
• Noise sensitivity of the application
• Power domain architecture
• Process node compatibility

Applications of power management IP cores

• Mobile and consumer electronics
• Automotive systems
• IoT and wearable devices
• Industrial electronics
• High-performance computing systems

Compare power management IP cores from leading vendors

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

Use filters to compare solutions based on efficiency, power consumption, integration level, and design requirements.

What is a Wi-Fi IP core?

A Wi-Fi IP core is a reusable hardware block that implements wireless networking functionality based on IEEE 802.11 standards in SoCs and ASICs.

These IP cores enable devices to connect to wireless networks, supporting high-speed data transfer, low latency communication, and reliable connectivity.

Main types of Wi-Fi IP

Wi-Fi controller IP

Wi-Fi controller IP handles MAC layer functionality, including packet scheduling, security, and protocol management.

Wi-Fi PHY IP

Wi-Fi PHY IP manages the physical layer, including modulation, coding, and RF signal processing.

Integrated Wi-Fi solutions

Some IP cores provide integrated controller and PHY solutions, simplifying system design and integration.

Key features of Wi-Fi IP cores

• High data rates and throughput
• Low latency communication
• Support for latest Wi-Fi standards
• Advanced security features (WPA3, encryption)
• Power-efficient operation

How to choose a Wi-Fi IP core

Selecting the right Wi-Fi IP depends on your application:

• Supported standard (Wi-Fi 5, 6, 6E, 7)
• Data rate and bandwidth requirements
• Power consumption for battery-powered devices
• Integration complexity (controller + PHY)
• RF and antenna design considerations

Applications of Wi-Fi IP cores

• Smart home and IoT devices
• Mobile and consumer electronics
• Enterprise networking equipment
• Automotive connectivity
• Industrial wireless systems

Compare Wi-Fi IP cores from leading vendors

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

Use filters to compare solutions based on performance, power efficiency, standard support, and integration requirements.

What is IEEE 802.15.4 IP?

IEEE 802.15.4 IP is a reusable hardware block that implements low-power wireless communication for SoCs and ASICs. It provides the physical (PHY) and MAC layers required for short-range, low-data-rate wireless networks.

This standard is widely used as the foundation for higher-level protocols such as Zigbee, Thread, and 6LoWPAN.

Main features of IEEE 802.15.4 IP

• Ultra-low power consumption
• Support for mesh networking
• Reliable short-range communication
• Scalable network topologies
• Secure data transmission

Supported protocols and ecosystems

Zigbee

Zigbee is a widely used protocol for smart home and industrial applications, enabling reliable mesh networking and device interoperability.

Thread

Thread is an IP-based mesh networking protocol designed for IoT devices, providing secure and scalable connectivity.

6LoWPAN

6LoWPAN enables IPv6 communication over low-power wireless networks, allowing direct integration with internet-based systems.

How to choose an IEEE 802.15.4 IP core

Selecting the right IP depends on your application and network requirements:

• Supported protocol stack (Zigbee, Thread, 6LoWPAN)
• Power consumption and battery life
• Range and network topology
• Security features
• Integration with RF and system architecture

Applications of IEEE 802.15.4 IP cores

• Smart home devices
• Industrial IoT systems
• Smart energy and metering
• Sensor networks
• Building automation

Compare IEEE 802.15.4 IP cores from leading vendors

This catalog provides access to a wide range of IEEE 802.15.4 IP cores from leading semiconductor IP providers.

Use filters to compare solutions based on power efficiency, protocol support, performance, and integration requirements.

What is GNSS IP?

GNSS IP is a reusable hardware block that enables satellite-based positioning and timing in SoCs and ASICs. It processes signals from global navigation satellite systems to determine precise location and time.

GNSS IP cores are essential for applications that require accurate positioning, navigation, and synchronization.

Main GNSS systems supported

GPS (Global Positioning System)

GPS is the most widely used satellite navigation system, providing global coverage and reliable positioning.

Galileo

Galileo is a European GNSS system offering high accuracy and improved reliability.

BeiDou

BeiDou is a Chinese satellite navigation system providing global positioning and regional services.

GLONASS

GLONASS is a Russian GNSS system that complements other constellations for improved coverage and accuracy.

Key features of GNSS IP cores

• High positioning accuracy
• Multi-constellation support
• Low power consumption for battery-powered devices
• Fast time-to-first-fix (TTFF)
• Integration with RF front-end and sensors

How to choose a GNSS IP core

Selecting the right GNSS IP depends on your application requirements:

• Required accuracy and precision
• Supported constellations
• Power consumption
• Time-to-first-fix (TTFF)
• Integration with system and RF components

Applications of GNSS IP cores

• Automotive navigation systems
• Mobile devices and wearables
• IoT tracking devices
• Industrial positioning systems
• Timing and synchronization applications

Compare GNSS IP cores from leading vendors

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

Use filters to compare solutions based on accuracy, power efficiency, constellation support, and integration requirements.

What is key management IP?

Key management IP is a hardware block that handles the generation, storage, distribution, and protection of cryptographic keys within SoCs and ASICs.

It ensures that sensitive keys remain secure throughout their lifecycle, protecting systems against unauthorized access and attacks.

Main functions of key management IP

Key generation

Secure generation of cryptographic keys using hardware-based entropy sources such as TRNG (True Random Number Generators).

Secure key storage

Keys are stored in protected memory regions or secure elements, preventing unauthorized access or extraction.

Key distribution and provisioning

Key provisioning ensures that keys are securely injected during manufacturing or deployment.

Key lifecycle management

Key management IP supports key rotation, revocation, and secure deletion throughout the product lifecycle.

Access control and isolation

Hardware-enforced access control ensures that only authorized components can access cryptographic keys.

Key features of key management IP cores

• Secure key storage and isolation
• Hardware-based key generation
• Protection against physical and software attacks
• Support for secure provisioning
• Integration with cryptographic engines

How to choose key management IP

Selecting the right IP depends on your security requirements:

• Security level and threat model
• Key storage technology (eFuse, secure memory, etc.)
• Integration with Root of Trust architecture
• Performance and latency
• Compliance with security standards

Applications of key management IP cores

• IoT and connected devices
• Automotive security systems
• Mobile and consumer electronics
• Industrial and embedded systems
• Data center and cloud infrastructure

Compare key management IP cores from leading vendors

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

Use filters to compare solutions based on security features, performance, storage mechanisms, and integration requirements.

What is side-channel protection IP?

Side-channel protection IP is a hardware security block designed to protect cryptographic implementations against attacks that exploit physical leakages such as power consumption, electromagnetic emissions, and timing variations.

These protections are critical for securing sensitive operations like encryption, key handling, and authentication in embedded systems.

Main types of side-channel attacks

Differential Power Analysis (DPA)

DPA analyzes variations in power consumption to extract secret information such as cryptographic keys.

Correlation Power Analysis (CPA)

CPA uses statistical methods to correlate power traces with internal data processing.

Electromagnetic Analysis (EMA)

EMA exploits electromagnetic emissions to recover sensitive information.

Timing attacks

Timing-based attacks analyze execution time differences to infer secret data.

Countermeasures implemented in IP cores

Masking techniques

Masking randomizes intermediate values to decorrelate power consumption from sensitive data.

Hiding techniques

Hiding reduces signal leakage by balancing or obfuscating power and electromagnetic emissions.

Noise injection

Artificial noise is introduced to make side-channel analysis more difficult.

Fault injection protection

Protection mechanisms detect and mitigate attacks that attempt to induce faults in the system.

Key features of side-channel protection IP cores

• Resistance to DPA, CPA, and EMA attacks
• Advanced masking and hiding techniques
• Minimal performance overhead
• Integration with cryptographic IP
• Compliance with security standards

How to choose side-channel protection IP

Selecting the right IP depends on your security requirements:

• Required resistance level (evaluation level, certifications)
• Performance and area overhead
• Compatibility with cryptographic engines
• Type of threats and attack models
• Certification requirements (e.g., Common Criteria)

Applications of side-channel protection IP cores

• Secure elements and smart cards
• Payment and authentication systems
• Automotive security
• IoT devices
• Secure processors and trusted environments

Compare side-channel protection IP cores from leading vendors

This catalog provides access to a wide range of side-channel protection IP cores from leading semiconductor IP providers.

Use filters to compare solutions based on security robustness, performance impact, area cost, and integration requirements.

What is secure processing IP?

Secure processing IP is a hardware block that enables isolated and protected execution of sensitive code and data within SoCs and ASICs.

It ensures that critical operations such as cryptography, authentication, and secure data handling are protected from software and hardware attacks.

Main types of secure processing IP

Trusted Execution Environment (TEE)

TEE IP provides an isolated execution environment separate from the main operating system, ensuring that sensitive operations remain secure.

Secure enclaves

Secure enclave IP isolates critical workloads and protects them even in the presence of compromised software.

Secure processors

Secure processor IP integrates dedicated hardware for executing security-critical tasks such as key management and cryptographic operations.

Hardware isolation and partitioning

These IP cores enforce strong isolation between secure and non-secure domains, preventing unauthorized access to sensitive resources.

Key features of secure processing IP cores

• Hardware-enforced isolation
• Secure execution environments
• Protection against software and physical attacks
• Integration with Root of Trust architecture
• Support for secure boot and attestation

How to choose secure processing IP

Selecting the right IP depends on your security architecture:

• Required isolation level
• Performance and latency constraints
• Compatibility with software stack
• Integration with security subsystems
• Certification and compliance requirements

Applications of secure processing IP cores

• Mobile and consumer devices
• Automotive and safety-critical systems
• IoT and edge computing devices
• Cloud and data center infrastructure
• Secure authentication and payment systems

Compare secure processing IP cores from leading vendors

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

Use filters to compare solutions based on security architecture, performance, isolation capabilities, and integration requirements.

What is an interrupt controller IP?

An interrupt controller IP is a hardware block that manages interrupt signals generated by peripherals and internal system events in SoCs and ASICs.

It prioritizes interrupts, routes them to the appropriate processor cores, and ensures timely handling of critical events.

Main functions of interrupt controller IP

Interrupt prioritization

The controller assigns priority levels to different interrupt sources, ensuring that critical events are handled first.

Interrupt routing

Interrupt signals are routed to specific processor cores, supporting efficient multi-core operation.

Interrupt masking and control

The IP allows selective enabling and disabling of interrupts, providing flexibility in system control.

Low-latency response

Optimized architectures ensure minimal latency between interrupt generation and processing.

Types of interrupt controllers

Basic interrupt controllers

Suitable for simple embedded systems with limited interrupt sources.

Advanced interrupt controllers (e.g., GIC)

Advanced controllers such as Generic Interrupt Controller (GIC) support multi-core systems, virtualization, and complex priority schemes.

Distributed interrupt controllers

Distributed architectures provide scalability and improved performance in large SoC designs.

Key features of interrupt controller IP cores

• Low interrupt latency
• Flexible prioritization schemes
• Multi-core and multi-thread support
• Scalable architecture
• Integration with processor subsystems

How to choose an interrupt controller IP

Selecting the right IP depends on system complexity:

• Number of interrupt sources
• Latency requirements
• Multi-core support
• Priority and scheduling needs
• Compatibility with processor architecture

Applications of interrupt controller IP cores

• Embedded systems
• Automotive electronics
• Industrial control systems
• Consumer electronics
• High-performance computing systems

Compare interrupt controller IP cores from leading vendors

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

Use filters to compare solutions based on latency, scalability, priority handling, and integration requirements.

What is a power management controller IP?

A power management controller IP (PMU IP) is a digital hardware block that controls power distribution and optimization in SoCs and ASICs.

It coordinates power states, manages power domains, and ensures efficient operation by dynamically adjusting system resources.

Main functions of power management controller IP

Power domain control

PMU IP manages multiple power domains, enabling selective activation and deactivation of system components.

Dynamic voltage and frequency scaling (DVFS)

DVFS adjusts voltage and frequency based on workload, optimizing performance and power consumption.

Power and clock gating

These techniques reduce power usage by disabling inactive blocks, improving overall energy efficiency.

Power sequencing

PMU IP ensures correct startup and shutdown sequences, preventing system instability or damage.

Low-power modes management

The controller enables sleep, standby, and deep low-power states for energy-efficient operation.

Key features of power management controller IP cores

• Fine-grained power control
• Support for multiple power domains
• Dynamic performance scaling (DVFS)
• Low-latency power state transitions
• Integration with system control logic

How to choose a power management controller IP

Selecting the right PMU IP depends on system requirements:

• Number of power domains
• Required power savings
• Performance and latency constraints
• Support for DVFS and low-power modes
• Integration with analog power management blocks

Applications of power management controller IP cores

• Mobile and consumer devices
• IoT and embedded systems
• Automotive electronics
• Industrial systems
• High-performance computing platforms

Compare power management controller IP cores from leading vendors

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

Use filters to compare solutions based on power efficiency, control capabilities, latency, and integration requirements.

What is an ADC IP core?

An ADC (Analog-to-Digital Converter) IP core is a reusable analog or mixed-signal block that converts continuous analog signals into discrete digital values in SoCs and ASICs.

ADCs are essential for bridging the physical world and digital processing systems, enabling accurate measurement and signal processing.

Main ADC architectures

SAR ADC

Successive Approximation Register (SAR) ADC offers a good balance between resolution, power efficiency, and speed, making it widely used in embedded and sensor applications.

Pipeline ADC

Pipeline ADC provides high-speed conversion with moderate resolution, suitable for high-bandwidth applications.

Sigma-Delta ADC

Sigma-Delta ADC delivers very high resolution with lower bandwidth, ideal for precision measurement and audio applications.

Key performance metrics

• Resolution (bits)
• Sampling rate (MS/s, GS/s)
• Signal-to-noise ratio (SNR)
• Effective number of bits (ENOB)
• Power consumption

How to choose an ADC IP

Selecting the right ADC IP depends on application requirements:

• Required resolution and accuracy
• Sampling rate and bandwidth
• Power consumption constraints
• Noise and signal integrity requirements
• Integration with analog front-end

Applications of ADC IP cores

• Sensor interfaces
• Audio processing systems
• Industrial measurement and control
• Automotive systems
• RF and communication systems

Compare ADC IP cores from leading vendors

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

Use filters to compare solutions based on resolution, sampling rate, power efficiency, and integration requirements.

What is interface security IP?

Interface security IP is a hardware block that protects data transmitted between components within a SoC, between chips, or across external interfaces.

It ensures confidentiality, integrity, and authenticity of data, preventing interception, tampering, and unauthorized access.

Main types of interface security IP

Encrypted communication IP

These IP cores encrypt data exchanged over interfaces, ensuring confidentiality during transmission.

Authentication and secure access IP

Authentication mechanisms verify the identity of communicating components, preventing unauthorized access.

Secure bus and interconnect protection

Bus security IP protects internal communication across system interconnects, ensuring secure data flow between subsystems.

Protocol-level security IP

These IP cores implement secure versions of communication protocols, adding encryption and integrity checks to standard interfaces.

Key features of interface security IP cores

• Data encryption and decryption
• Authentication and access control
• Integrity verification
• Low-latency secure communication
• Integration with system security architecture

How to choose interface security IP

Selecting the right IP depends on your communication and security needs:

• Required security level
• Supported interfaces and protocols
• Performance and latency constraints
• Integration with cryptographic engines
• Compliance with security standards

Applications of interface security IP cores

• IoT and connected devices
• Automotive communication systems
• Data center and cloud infrastructure
• Mobile and consumer electronics
• Industrial and embedded systems

Compare interface security IP cores from leading vendors

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

Use filters to compare solutions based on security capabilities, performance, latency, and integration requirements.

What are embedded memory IP cores?

Embedded memory IP cores are reusable hardware blocks that provide on-chip storage داخل SoCs and ASICs. They are essential for buffering, caching, and storing data close to processing units.

These memories are optimized for performance, power efficiency, and area, depending on the application requirements.

Main types of embedded memory IP

SRAM IP

Static Random Access Memory (SRAM) provides fast access times and is widely used for caches and high-speed buffers.

ROM IP

Read-Only Memory (ROM) stores fixed data such as firmware, lookup tables, and boot code.

Register file IP

Register file IP provides small, high-speed memory blocks used within processors and accelerators.

Embedded Flash and EEPROM IP

Embedded non-volatile memory IP such as Flash and EEPROM retains data without power, enabling firmware storage and configuration.

Key features of embedded memory IP cores

• High-speed data access
• Optimized power consumption
• Scalable memory density
• Flexible memory configurations
• Integration with SoC architecture

How to choose embedded memory IP

Selecting the right memory IP depends on system requirements:

• Memory type (SRAM, ROM, Flash, EEPROM)
• Capacity and density
• Access time and bandwidth
• Power consumption
• Process node compatibility

Applications of embedded memory IP cores

• Processors and CPUs
• AI and machine learning accelerators
• Automotive systems
• IoT and embedded devices
• Industrial and consumer electronics

Compare embedded memory IP cores from leading vendors

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

Use filters to compare solutions based on density, performance, power efficiency, and integration requirements.

What are standard cell libraries?

Standard cell libraries are collections of pre-designed, pre-characterized digital logic cells used to build integrated circuits in ASIC and SoC design flows.

These libraries are optimized for different trade-offs between performance, power consumption, and silicon area.

Main components of standard cell libraries

Logic gates

Basic logic elements such as AND, OR, NAND, NOR, and XOR gates form the foundation of digital circuits.

Sequential elements

Flip-flops and latches store state information and are essential for synchronous designs.

Buffers and inverters

These cells drive signals across the chip and help manage timing and signal integrity.

Specialized cells

Libraries may include level shifters, isolation cells, clock gating cells, and power management cells for advanced design requirements.

Key features of standard cell libraries

• Multiple performance and power variants
• Characterization across PVT corners (process, voltage, temperature)
• Support for advanced nodes
• Optimized timing and signal integrity
• Compatibility with EDA tools

How to choose a standard cell library

Selecting the right library depends on design goals:

• Performance vs power trade-offs
• Target process node
• Area constraints
• Availability of low-power and high-speed variants
• EDA tool compatibility

Applications of standard cell libraries

• ASIC design
• SoC development
• High-performance processors
• Mobile and low-power devices
• Automotive and industrial electronics

Compare standard cell libraries from leading vendors

This catalog provides access to a wide range of standard cell libraries from leading semiconductor IP providers.

Use filters to compare solutions based on performance, power efficiency, area, and integration requirements.

What is cryptography IP?

Cryptography IP is a hardware block that implements cryptographic algorithms داخل SoCs and ASICs, enabling secure data encryption, decryption, and authentication.

Hardware-based cryptography provides higher performance and stronger security compared to software-only implementations.

Main types of cryptography IP

Symmetric encryption IP (AES)

AES IP provides high-speed symmetric encryption, widely used for data protection in storage and communication systems.

Asymmetric encryption IP (RSA, ECC)

RSA and ECC IP enable secure key exchange, digital signatures, and authentication.

Hashing IP

Hash IP implements functions such as SHA-2 and SHA-3, ensuring data integrity and authentication.

Cryptographic accelerators

These IP cores accelerate complex cryptographic operations, improving system performance and efficiency.

Key features of cryptography IP cores

• High-performance encryption and decryption
• Support for industry-standard algorithms
• Hardware-based security
• Low power consumption
• Integration with security subsystems

How to choose cryptography IP

Selecting the right IP depends on your security requirements:

• Required algorithms (AES, RSA, ECC, SHA)
• Performance and throughput
• Power consumption
• Security level and certifications
• Integration with key management and security architecture

Applications of cryptography IP cores

• Secure communication systems
• IoT and connected devices
• Automotive security
• Mobile and consumer electronics
• Data center and cloud infrastructure

Compare cryptography IP cores from leading vendors

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

Use filters to compare solutions based on performance, security capabilities, power efficiency, and integration requirements.

What is NFC IP?

NFC IP is a hardware block that enables short-range, contactless communication between devices within a few centimeters, typically integrated into SoCs and ASICs.

NFC technology is widely used for secure transactions, device pairing, and identification applications.

Main NFC modes of operation

Reader/Writer mode

Devices can read from and write to NFC tags, enabling applications such as access control and information retrieval.

Card emulation mode

NFC IP enables devices to act as contactless smart cards, supporting payment systems and secure authentication.

Peer-to-peer mode

Devices can exchange data directly, enabling quick pairing and data transfer between devices.

Key features of NFC IP cores

• Short-range secure communication
• Support for NFC-A, NFC-B, and NFC-F standards
• Low power consumption
• Integration with secure elements
• Fast device pairing and authentication

How to choose an NFC IP core

Selecting the right NFC IP depends on your application:

• Supported NFC modes (reader, card emulation, peer-to-peer)
• Security requirements
• Power consumption
• Integration with secure elements and controllers
• Compliance with NFC standards

Applications of NFC IP cores

• Contactless payments
• Access control and authentication
• Mobile and wearable devices
• Smart cards and identification
• IoT device pairing

Compare NFC IP cores from leading vendors

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

Use filters to compare solutions based on security, performance, power efficiency, and integration requirements.