Chip Security's New Era: How Integrated IP is Forging the Future of Devices

NEW YORK, NY – March 20, 2026 – A fundamental shift is underway in the heart of modern technology. The security intellectual property (IP) market, the source of the essential security building blocks for semiconductors, is entering a phase of accelerated growth, driven by a powerful new demand from device manufacturers for fully integrated, certification-ready components. This evolution, detailed in a new report by global technology intelligence firm ABI Research, is not just a market trend; it is reshaping the entire semiconductor design landscape, fueling a wave of consolidation and sparking a race to secure devices against the threats of tomorrow.

The Mandate for 'Security by Design'

For years, security in many electronic devices was treated as an add-on, a feature to be bolted on late in the design cycle. That paradigm is now obsolete. Original Equipment Manufacturers (OEMs) across critical sectors are now mandating that security be woven into the very fabric of their silicon, a philosophy known as "security by design." This demand is forcing a radical transformation in how security IP is developed and delivered.

The drivers are clear and urgent. In the automotive industry, where connected and autonomous vehicles are becoming rolling data centers, robust security is a matter of public safety. The industrial sector, embracing Industry 4.0, faces an ever-expanding attack surface, with valuable intellectual property and critical control systems at risk. Meanwhile, the explosive growth in AI and high-performance computing requires ironclad protection for sensitive data and complex models. The global embedded security market, valued at over $7 billion in 2023, is projected by some analysts to surpass $11.9 billion by 2030, reflecting this intense demand.

“OEMs are looking for certified embedded security solutions that can be personalized to their use cases,” said Michela Menting, Vice President at ABI Research. “This shift is transforming the IP landscape, forcing providers to innovate beyond standalone crypto blocks. In this context, semiconductors and chipmakers must now consider full‑stack, configurable security platforms that can scale across a wide range of SoCs and better comply with emerging regulatory requirements through certification programs like FIPS. CC, and SESIP, for example.”

These platforms move beyond simple cryptographic engines. They are bundled subsystems that combine secure Root of Trust (RoT) modules, firmware, and cryptographic libraries into a single, cohesive unit. This integrated approach not only provides stronger security but also significantly simplifies the development process for OEMs, helping them get secure products to market faster.

A Wave of Consolidation Reshapes the Market

The strategic imperative to offer these comprehensive, full-stack solutions is driving significant consolidation in the once-fragmented security IP market. Major players in the electronic design automation (EDA) and semiconductor IP space are aggressively acquiring smaller, specialized firms to build vertically unified security platforms.

Recent high-profile acquisitions illustrate this trend vividly. Synopsys has bolstered its portfolio by integrating Elliptic Technologies, a provider of cryptographic IP, and Intrinsic ID, a specialist in Physical Unclonable Functions (PUFs) used for robust device authentication. Not to be outdone, its rival Cadence recently acquired embedded cybersecurity expert Secure-IC. The strategic rationale is unmistakable: to create a one-stop shop for the complex security needs of modern system-on-chip (SoC) designs.

By acquiring these specialists, large EDA vendors can integrate advanced security features—from anti-tampering and side-channel protection to secure lifecycle management—directly into their core design and verification tools. This "shift-left" approach enables security to be addressed from the earliest stages of the design process, reducing vulnerabilities and costly redesigns. This consolidation is fueled by a market opportunity that is too large to ignore; the overall semiconductor IP market is on a trajectory to grow from approximately $8.8 billion in 2024 to nearly $36 billion by 2034.

This trend is also changing revenue models. While upfront license fees still dominate, service revenues are becoming an increasingly important and lucrative component. These services, which can include integration support, customization, and certification assistance, are priced anywhere from 10% to 30% of the initial license cost, creating a long-term revenue stream for providers who can deliver turnkey solutions.

The Gauntlet of Global Certification

Central to this new era of integrated security is the demand for components that are "certification-ready." OEMs are no longer willing to bear the entire burden of navigating the complex, time-consuming, and expensive process of security certification. They expect their silicon partners to provide components that are pre-aligned with a growing alphabet soup of global standards.

Programs like FIPS (Federal Information Processing Standards), the benchmark for cryptographic modules used by the U.S. government, and Common Criteria (CC), an international standard for IT security evaluation, provide a framework for independent, rigorous security validation. Achieving these certifications demonstrates a high level of assurance and is often a prerequisite for selling into government, finance, and critical infrastructure markets.

A newer standard, SESIP (Security Evaluation Standard for IoT Platforms), is rapidly gaining traction by offering a more agile and modular approach tailored to the fast-paced world of the Internet of Things. It allows for the evaluation of individual components, such as a security IP block, which can then be composed into a certified system, streamlining the process for device makers. The pressure to comply is forcing IP providers to embed certification requirements into their own design lifecycles, a challenging but necessary evolution.

“Security IP is increasingly becoming a platform play, with turnkey certification and configurability defining the next competitive frontier in secure semiconductor design,” Menting noted.

Securing the Future: Quantum Threats and Advanced Defenses

While the industry grapples with today's security challenges, it is also racing to defend against the threats of tomorrow. The most formidable of these is the advent of quantum computing, which threatens to render much of today's public-key cryptography obsolete. In response, the security IP industry is heavily invested in developing and deploying Post-Quantum Cryptography (PQC).

Led by standardization efforts from the U.S. National Institute of Standards and Technology (NIST), which has already approved the first set of quantum-resistant algorithms, IP providers are working to integrate these new cryptographic schemes into their offerings. The challenge is immense, particularly for resource-constrained embedded devices. PQC algorithms are often more computationally intensive and require larger key sizes than their classical counterparts, demanding significant optimization and, increasingly, hardware acceleration to be viable.

This forward-looking innovation is a key area of differentiation. Companies like Rambus are developing hardware-accelerated PQC IP cores for high-performance applications. Others, such as FortifyIQ, are specializing in protecting these new algorithms from sophisticated side-channel attacks, where attackers analyze power consumption or electromagnetic emissions to extract secret keys. Meanwhile, firms like Xiphera are creating high-performance PQC engines for data centers and AI, aiming to secure the next generation of computing infrastructure. This proactive battle against future threats ensures that the security being designed into chips today will remain resilient for years to come.