EDA Agentic AI is a new approach in electronic design automation (EDA) that uses agentic artificial intelligence. This means autonomous software agents that can reason, learn, plan, and carry out complex tasks. Unlike traditional AI or automation, Agentic AI systems use intelligent agents that work alone or together, taking on engineering tasks that used to need a lot of human involvement. These agents are designed to manage multi-step, detailed processes throughout the semiconductor design lifecycle, from RTL generation to verification and testbench creation.
At its core, EDA Agentic AI represents a shift from assistive automation to fully autonomous, goal-driven agents. These agents can analyze goals, adapt strategies, learn from outcomes, and coordinate with other agents or human engineers. As design complexity increases and time-to-market pressures intensify, Agentic AI empowers organizations to meet these challenges with unprecedented speed, flexibility, and innovation.
The emergence of EDA Agentic AI marks a transformative moment for the semiconductor industry. By embedding intelligence and autonomy into the engineering workflow, companies can dramatically reduce manual effort, optimize computational resources, and unlock new levels of productivity.
Your essential guide to overcoming AI chip complexity and achieving successful silicon outcomes from design to deployment.
EDA Agentic AI systems are built upon a framework of autonomous agents, each will be programmed to perform distinct engineering tasks and adapt dynamically to changing requirements. Unlike rule-based automation, these agents will possess capabilities for reasoning, planning, learning, and execution. The workflow typically involves several key steps and features:
Agents begin by analyzing the design goals, constraints, and available resources. They develop intelligent, adaptable plans of action, taking into account evolving project requirements. For example, an agent might evaluate trade-offs between performance, power, and area for a given chip design, then propose optimal strategies for RTL generation or verification planning.
A hallmark of Agentic AI is its ability to learn from experience. After each project or task, agents receive feedback on their performance and outcomes. This continuous learning loop enables them to refine their strategies, improve efficiency, and adapt to new challenges. Over time, Agentic AI systems become increasingly effective, reducing errors and accelerating future projects.
Agents autonomously will carry out engineering tasks, such as generating RTL code, creating verification testbenches, planning simulation runs, and managing data flows. They will work individually or in coordinated teams, orchestrating complex workflows that span multiple stages of the design lifecycle. Human engineers will maintain oversight and can intervene at critical decision points, but much of the routine, computationally intensive work will be handled by the agents.
One of the most powerful aspects of EDA Agentic AI is the ability for multiple agents to collaborate. In a multi-agent system, agents will communicate, share data, and synchronize their activities to tackle large-scale engineering challenges. For example, one agent may focus on logic synthesis while another handles verification planning, both working in tandem to ensure design integrity and optimal outcomes.
While agents will take on repetitive and complex tasks, human engineers will be freed to focus on higher-level activities—such as strategic planning, innovation, and problem-solving. This partnership between humans and AI agents leads to better decision-making, faster project delivery, and improved overall product quality.
Agentic AI will become increasingly more capable and can be categories into 5 levels, L1 to L5, with each level characterized by increasing capabilities of AI agents. The figure below shows the progression from basic, assistive automation (L1) to collaborative, partially autonomous agents (L2–L4), and ultimately to highly autonomous, self-directed agents (L5), where human engineers rely on AI agents for a myriad of engineering tasks.
Implementing EDA Agentic AI offers a wide range of benefits that address the most pressing challenges in semiconductor design and engineering.
Key benefits include:
Synopsys is at the forefront of EDA Agentic AI innovation, offering industry-leading AgentEngineer™ technology. Built on Synopsys’ advanced Agentic AI framework, AgentEngineer™ introduces a new class of AI-powered agents capable of reasoning, planning, learning, and executing engineering tasks both individually and in coordinated multi-agent teams.
As the first company to deliver GenAI agents and define the future of Agentic AI through its L1–L5 framework, Synopsys enables customers to tackle increasing design complexity, accelerate time-to-market, and achieve revolutionary productivity. The AgentEngineer™ technology is designed to scale with organizational needs, ensuring competitiveness in an ever-evolving industry.
Synopsys’ Agentic AI solutions empower engineers to focus on innovation and strategic thinking while autonomous agents handle computationally intensive tasks. By partnering with Synopsys, organizations can redefine engineering productivity, streamline workflows, and unlock new possibilities in electronic design automation.
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