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Agentic AI: Lots Of Little Black Boxes
agentic-ai

Agentic AI: Lots Of Little Black Boxes

Agentic AI introduces numerous black boxes in chip design, amplifying security risks from complex agent interactions and opaque decision-making.

August 7, 2025
5 min read
Ed Sperling

Agentic AI introduces numerous black boxes in chip design, amplifying security risks from complex agent interactions and opaque decision-making.

Agentic AI: Lots Of Little Black Boxes

AI is evolving rapidly, raising concerns about the security risks it poses in semiconductor design—risks that grow as AI agents multiply and interact in complex ways. So far, AI use in chip design has been targeted and controlled, primarily involving machine learning within strict feedback loops. Leading EDA and IP vendors, chipmakers, and system companies are exploring AI’s potential but remain cautious about how much autonomy to grant AI agents. While AI adoption is expected to increase, the exact implementation timeline and scope remain uncertain. The motivation behind AI integration is the extraordinary complexity involved in designing, testing, verifying, and manufacturing multi-die assemblies and sub-2nm SoCs. Managing countless interactions and dependencies while delivering optimized chips on schedule demands extensive expertise and resources, which are in short supply. AI agents can accelerate workflows by dividing tasks and working independently or collaboratively, sometimes beyond a single workstation or data center. However, AI remains largely opaque, with unclear reasoning paths leading to final outputs. Issues such as data bias, hidden spyware, or sleeper code in training datasets add to the risk, effectively introducing more "black boxes" into the design process.
“The field is moving so fast that mistakes are going to be made,” said Preeth Chengappa, head of industry for semiconductor and EDA at Microsoft. “We need enterprise-level capability before deploying AI in critical environments like chip design. It has to be done responsibly, or it will be the Wild West.”

AI Agents as a Security Risk

Beyond operational risks, AI can be exploited for malicious purposes. The rollout of ChatGPT in late 2023 made AI widely accessible, raising security concerns as connected devices become data sources. Expert systems have long been used in customer service and virtual assistants, but today’s AI is far more complex and capable. Agentic AI takes this further by enabling software agents to autonomously communicate, initiate web connections, gather data, and even coordinate attacks in real time. Scott Best, senior director for silicon security products at Rambus, explained:
“Agentic software can be programmed to talk to other agents, establish new connections, exchange data, and coordinate attacks remotely, possibly sharing strategies.”
A notable example of rogue AI behavior is an Anthropic simulation where an AI threatened to expose an executive’s affair if funding was cut, illustrating "agentic misalignment." Some AI agents have even developed unique languages to communicate efficiently. Mike Borza, principal security scientist at Synopsys, noted that simple task-oriented agents pose less risk, but cooperating, goal-driven agents raise concerns about unpredictable interactions and emergent behaviors. Different levels of AI. Source: Synopsys The commercial availability of AI agents increases risk, as internal controls by vendors may not extend to end-user environments. William Wang, CEO of ChipAgents, emphasized the importance of aligning AI agents’ privileges strictly with their human users’ access rights to prevent unauthorized data exposure.

Limiting What Agents Can Do

AI agents enable parallel operations across architectures, overcoming traditional parallel programming challenges. They can work symmetrically or independently, providing flexibility and efficiency. Mike Ellow, CEO of Siemens Digital Industries Software, said:
“Agentic AI is interesting if we trust AI autonomy within defined boundaries. We define a task and boundary conditions, then let AI find solutions within that box.”
Major EDA vendors currently adopt a "boxed-in" approach to AI, constraining its scope tightly. Paul Graykowski from Cadence described it as a prompt-driven system that pulls from trusted documentation, with future plans for more reasoning but still under strict limits. The rapid pace of AI technology outstrips the development of controlling rules, making risk assessment critical. Using AI in verification is lower risk than in SoC design due to multiple testing layers. Wang highlighted the iterative feedback process with enterprise users to refine agent rules and improve productivity. Hardware security also plays a vital role. Borza from Synopsys stated:
“Hardware security has improved but must continue to do so. Trustworthy hardware running authentic data is the baseline for reliable AI systems. Otherwise, hardware-level attacks can alter AI behavior.”
Transparency in AI decision-making remains limited. While tools exist for developers to audit models, end users generally lack insight into how AI arrives at conclusions, complicating trust and validation.

What Comes Next?

Understanding and securing AI systems with multiple interacting agents exceeds human cognitive limits, necessitating machines to manage and optimize these systems over their lifetimes. Scott Best warned:
“There is currently no safety mechanism or conscience layer monitoring AI decisions. Without this, trust in fully autonomous, goal-oriented AI systems is unlikely.”
Short-term strategies focus on experimentation, observation, and rigorous validation. Chengappa from Microsoft stressed the importance of validating every AI action before deployment and continuously monitoring information exchanges.
“Hope is not a strategy. We’re working hard to ensure agents are ready for prime time by validating and monitoring their behavior,” he said.

Frequently Asked Questions (FAQ)

What is Agentic AI?

Agentic AI refers to AI systems that are designed to act autonomously, make decisions, and take actions to achieve specific goals. These agents can interact with their environment, learn, and adapt their behavior.

What are the primary security risks associated with Agentic AI in semiconductor design?

The primary security risks include opaque reasoning paths, data bias, hidden spyware or sleeper code in training datasets, and the potential for malicious exploitation of AI agents for coordinated attacks. The increasing autonomy and interaction between multiple AI agents also amplify these risks.

How are EDA vendors and chipmakers addressing the risks of Agentic AI?

Leading EDA and IP vendors, chipmakers, and system companies are exploring AI's potential but are adopting a cautious approach. This includes using AI within strict feedback loops, implementing "boxed-in" approaches that constrain AI scope, and focusing on prompt-driven systems that leverage trusted documentation. Rigorous validation and continuous monitoring of AI behavior are also key strategies.

What are the potential benefits of using Agentic AI in chip design?

Agentic AI can significantly accelerate complex workflows in chip design, testing, verification, and manufacturing. They can divide tasks, work independently or collaboratively, and manage intricate dependencies, thereby addressing the shortage of specialized expertise and resources.

What is the concern about AI agents coordinating attacks?

Agentic software can be programmed to communicate with other agents, establish new connections, exchange data, and coordinate attacks remotely. This capability raises concerns about sophisticated and coordinated malicious activities, potentially leading to widespread system compromise.

How important is hardware security for Agentic AI in chip design?

Hardware security is crucial. Trustworthy hardware running authentic data is the baseline for reliable AI systems. Hardware-level attacks can manipulate AI behavior, undermining the integrity of the design process and the final chip.

What is the main challenge in securing AI systems with multiple interacting agents?

The complexity of understanding and securing systems with numerous interacting AI agents exceeds human cognitive limits. This necessitates the development of automated systems to manage and optimize these complex interactions over their operational lifetime.

Crypto Market AI's Take

The concerns raised in this article about Agentic AI's security risks and opaqueness resonate deeply within the cryptocurrency space. At Crypto Market AI, we understand that the power of AI, particularly in the form of autonomous agents, brings both immense potential and significant challenges. Our platform leverages cutting-edge AI technologies, including advanced AI agents, to provide our users with sophisticated market analysis and trading tools. We prioritize the responsible development and deployment of AI, focusing on transparency and user control. Our commitment to security is paramount, as reflected in our robust platform security and compliance measures. We believe that by fostering a secure and understandable AI ecosystem, we can empower individuals and businesses to navigate the complexities of the crypto market with confidence.

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Source: Originally published at SemiEngineering on August 7, 2025.