FlexNoC Interconnect IP
Physically Aware Network-on-Chip IP
Overview
Enabling SoC Developers to Create Physically Valid NoCs Faster
The world’s #1 on-chip fabric is used by the world’s top semiconductor design teams as the backbone on-chip communications for chips targeting the fastest growing markets.
The latest generation FlexNoC Interconnect with its integrated physical awareness technology, gives place and route teams a much better starting point while simultaneously reducing interconnect area and power consumption. FlexNoC delivers up to 5X shorter turn-around-time versus manual physical iterations.
The combined use of FlexNoC and Ncore IP in an ASIC design delivers unparalleled performance optimization, scalability, and system integration, enabling robust cache coherence, efficient communication, and flexibility, leading to market differentiation and accelerated time-to-market.

Advantages
The Most Complete Network-On-Chip Product
Everything design teams need to create the world’s best SoCs, faster
Flexible Topologies
FlexNoC is generated from simple elementary components which are combined by a powerful set of underlying algorithms and an intuitive GUI, making it possible to build any topology.
Small to Large SoCs
FlexNoC easily supports long cross-chip paths by leveraging source-synchronous communications and virtual channels.
Huge Bandwidth
FlexNoC drives performant on-chip data flow and access to off-chip memory by enabling multi-channel HBMx memory and high bandwidth data paths.
Features
FlexNoC 5 Key Features

- Auto-timing closure assist
- NIU (Network Interface Unit) tiling to organize NIUs into modular, repeatable blocks, improving scalability, efficiency, and reliability
- Topology visualized directly on floorplan
- Multi-clock/power/voltage domains and power management with unit-level clock gating
- Multi-protocol support including AMBA 5 with QoS bandwidth regulator and limiter Enumerations
- General optimizations for lower area e.g. up to 30% for some NoC elements depending on configuration
- Native and user-defined firewall security
- Import and export to Magillem tools
- AMBA 5 support of DVM 8.1 (Distributed Virtual Memory)
- On-chip performance monitoring and debug
- Debug and trace with ATB 128b and timestamps
Explore additional features of FlexNoC, download the datasheet.

Feature Spotlight
NoC Tiling — new feature with FlexNoC
NoC tiling with mesh topology for NPUs, GPUs, TPUs with FlexNoC. Up to 1024 tiles.
- Scale performance
- Condense design time
- Speed testing
- Reduce design risk
Create modular, scalable designs, enabling faster integration, verification and optimization.
Efficient Transport of Data Through the SoC
Arteris CodaCache® last-level cache:
- Ideal for NoC applications with data re-use
- Improves overall SoC latency and power
Efficient Transport of Data Through the SoC

NoC Integration Automated Flow
Automated flow to leverage SoC connectivity information:
- Improved productivity with reduced process
- Better quality with early errors detections thanks to the checkers
NoC Integration Automated Flow

Benefits
FlexNoC Product Benefits
Higher Frequencies, Lower Latencies
Using built-in NoC performance analysis exploration tools
Lower Power Consumption
Advanced power management through clock gating, DVFS and GALS
Smaller Die Area
Fewer wires using optimal NoC transport layer
Speedy Timing Closure
Early physical awareness for faster convergence without re-designs
Easy Configuration
Through the intuitive FlexNoC UI
Automated Verification
Saving hundreds of hours of work versus manual verification test benches
Shorter Schedules
Fewer iteration loops
Higher Profit
Reduced TTM from FlexNoC design efficiency savings
Product Comparison
Product Comparison Table
Category | Features | FlexWay | FlexNoC | FlexGen |
---|---|---|---|---|
Target Audience and Scale | Smaller-scale MCU SoCs | |||
Small-medium scale SoCs | ||||
Large scale SoCs | ||||
Instances Per Design | Single NoC instance | |||
Multiple NoC instances | ||||
Network Interface Units (NIUs) | Up to 50 NIUs | |||
Up to 200 NIUs | ||||
Up to 1000 NIUs | with XL option | with XL option | ||
Compatibility | AXI, AHB, APB, OCP, PIF, AMBA5 | |||
ACE-Lite | ||||
Smart NoC Automation | Topology generation with minimum wire length | |||
Scripting-driven regular topology creation | ||||
Incremental design capability | ||||
Physical Awareness | Automatic timing closure assistance | |||
Floorplan visualization | ||||
Advanced Scalability | NIU tiling | with XL option | with XL option | |
Mesh topology editor | with XL option | with XL option | ||
Write broadcast stations | with XL option | with XL option | ||
Virtual channel links | with XL option | with XL option | ||
Source synchronous asynchronous bridges | with XL option | with XL option | ||
Up to 1024 bits data bus | with XL option | with XL option | ||
512 pending transaction support | with XL option | with XL option | ||
Optimizations | Optimization for performance, area and wire length | |||
Advanced Quality of Service (QoS) | ||||
Power management and security | ||||
Address and data protection schemes | ||||
Advanced in-circuit debug features | ||||
Multi-cycle SRAM support | ||||
Floorplan visualization | ||||
Add-on Options | Memory Re-order Buffer option | |||
Reliability option | ||||
Safety (up to ISO 26262 ASIL D) option | ||||
Advanced Scalability (XL) option | ||||
Markets | Automotive, Communications, Consumer Electronics, Enterprise Computing and Industrial Markets |
Options
FlexNoC Product Options
Seamlessly integrated extensions to the base FlexNoC feature set
- NIU tiling
- Mesh topology editor
- Up to 2048 bits data bus
- Virtual channel links
- Write broadcast stations
- ISO 26262 Functional Safety (FuSa)
- Multi-ASIL support
- Interconnect-wide ECC support
Single and Multi-channel reorder buffers (ROB):
- Avoid ordering rule blocks
- Avoid response serialization bottlenecks
- Allow concurrent memory channel reads
Arteris accelerates AI-driven silicon innovation with its expanded multi-die solution
Foundational technology for rapid chiplet-based design.
- Flexible design scalability
- Differentiated AI performance
- Aligned with evolving industry standards
Built on silicon-proven NoC IP and Magillem™ automation to scale modular architectures, simplify multi-die projects, and compress development schedules.




Resources
Resources
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- Accelerating Timing Closure for Networks-on-Chip (NoCs) using Physical Awareness
- Chiplets: Opportunities and Challenges
- NoC-Centric System Performance for the Chiplet-Era with Platform Architect
- Optimizing Data Transport Architectures in RISC–V SoCs for AI/ML Applications
- Integration Challenges for RISC-V Designs
- Promises and Pitfalls of SoC Restructuring
- Scaling Performance in AI Systems
- Architecting the Future of Deep Learning Presentation
- Arm & Arteris AI and ISO 26262 Presentation
- Arm TechCon: Implementing ISO 26262 Compliant AI Systems-on-Chip with Arm and Arteris
- Automating the Generation of Scalable and Reusable FMEDA in Complex Systems-on-Chip (SoCs)
- Building Better IP with RTL Architect NoC IP Physical Exploration
- Challenges Adopting Fault Injection to Support Safety Analysis in Complex SoCs
- Efficient Scaling of AI Accelerators Using NoC Tiling
- FMEDA Automation for Scalability and Reuse in Complex Systems on Chips (SoCs)
- Fundamentals of ISO 26262 Part 11 for Semiconductors
- Implementing Low-Power AI SoCs Using NoC Interconnect Technology
- Implementing Machine Learning & Neural Network Chip Architectures
- Is the Missing Safety Ingredient in Automotive AI Traceability?
- ISO 26262 System-on-Chip (SoC) Safety Analysis for ADAS and AV
- ISO 26262: FMEA before FMEDA
- ISO 26262: What to Expect From Your Chip or IP Provider
- Lessons Learned Integrating AI/ML Accelerators into Complex ISO 26262 Compliant Systems-on-Chip
- Routing Congestion: The Growing Cost of Wires
- Safety Considerations for Network-on-Chip (NoC) Development
- The Role of Networks-on-Chips Enabling AI/ML Silicon and Systems
- Tiled Approach to System Scaling
- Using Synopsys Z01X to Accelerate the Fault Injection Campaign of a Fully Configurable IP
- SemiWiki: How NoC Tiling Capability is Changing the Game for AI Development with Andy Nightingale
- EE Journal: Managing the Massive Data Throughput: AI-Based Designs and The Value of NoC Tiling
- Electronic Design: All About NoCs
- SemiWiki: The Impact of Arteris on Automotive and Beyond with Frank Schirrmeister
- SemiWiki: A Broad View of Design Architectures and the Role of the NoC with Arteris’ Michal Siwinski
- EE Journal: The Freedom to Innovate: Arteris and the Rise of RISC-V
- EE Journal: The Network-on-Chip Pioneer: How Arteris Enabling SoC Developers to Create Physically Valid NoCs Faster
- SemiWiki: The Impact of Using a Physically Aware NoC with Charlie Janac
- Application Driven Network-on Chip Architecture Exploration & Refinement for a Complex SoC
- Fundamentals of Semiconductor ISO 26262 Certification: People, Process and Product
- How to Efficiently Achieve ASIL-D Compliance Using NoC Technology
- Optimizing Enterprise-Class SSD Host Controller Design with Arteris FlexNoC Network-On-Chip Interconnect IP
- Power Dissipation of the Network-on-Chip in a System-on-Chip for MPEG-4 Video Encoding
- Re-Architecting SoCs for the AI Era
- Routing Congestion: The Growing Cost of Wires
- Scalability – A Looming Problem in Safety Analysis
- Security in Artificial Intelligence
- Using Machine Learning for Characterizations of NoC Components
- Using Synopsys Z01X to Accelerate the Fault Injection Campaign of a Fully Configurable IP
- Using Virtual Prototypes to Improve the Traceability of Critical Embedded Systems Flow
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