By Eddie Sinnott, Vice President, Automotive & Industrial Business Units at Cirrus Logic.getty​For years, the semiconductor industry has followed a familiar pattern: Large companies focus on optimizing components. Startups chase disruptive breakthroughs. Both play an important role. But between them, an underserved gap exists because something critical hasn’t been given enough attention: system-level innovation.​This gap was easier to ignore when systems were loosely coupled. Components could be improved independently, and integration happened downstream. That model is breaking down.​Why Modern Systems Are Becoming More InterdependentIn automotive, software-defined vehicles and zonal architectures are changing how systems are designed. In industrial environments, autonomous operations, interoperability, intelligent fault detection, resilience and remote management are creating major changes across electrification, automation and smart buildings.​In both markets, networks are being consolidated and standardized. Power is being more intelligently managed. User interfaces are becoming more integrated and intuitive across modality. High-quality analog to digital signal conversion is becoming ubiquitous, but scalable. More functions are running across shared infrastructure.On the surface, systems are becoming simpler. Underneath, they're becoming more interdependent. That interdependence exposes a different kind of constraint.​Consider noise cancellation in modern vehicles. Manufacturers are using sensors, microphones and digital signal processing to generate anti-noise in real time. But the system only works if the full signal path, from sensor to compute to speaker, operates within a tightly constrained latency budget. We're not talking about milliseconds, but microseconds.​No single component determines whether that system succeeds. The outcome depends on how the entire chain behaves. Sensor control, network design, processing architecture, power management and data movement all need to be considered together. If one part is optimized in isolation, the system can still fail.As these systems become more complex, innovation must be less fragmented than it is today. This is the missing middle.​Today, many original equipment manufacturers are forced to take on this responsibility themselves. They integrate components, manage trade-offs and resolve conflicts and bottlenecks across the system that cause suboptimal overall performance. Some have the engineering depth to do it. Many don't. Even when they do, it extends design cycles and takes the focus away from differentiation in the areas that matter in their end market.​ The result is a growing mismatch between how semiconductors are developed and how modern systems perform.​Component-level optimization still matters. So does breakthrough innovation. But increasingly, value is determined by how well those pieces work together in a real-world application. Achieving that requires a different approach.​It starts earlier in the design process. Suppliers need to understand the application in detail, not just wait for “a spec.” They need to engage before architectures are fixed, when trade-offs can still be made. And they need to think in terms of system outcomes, not individual devices. Sometimes, this cycle is shorter than an IC design cycle time. Sometimes, it’s much longer. How does a semiconductor manufacturer both anticipate and react at the same time?Anticipating And Reacting Simultaneously​In practice, that means first understanding the market trends, particularly the disruptors. Then, looking at the impact across the entire system. The model then emphasizes early engagement at the architecture stage, co-development with OEMs and Tier 1 manufacturers and sometimes, collaborating with other suppliers with complimentary technology, then creating tailored solutions optimized for specific applications. This requires foresight and long-term investment in a semiconductor supply chain, IP portfolio and a scalable and evolutionary roadmap—one that will evolve as the customer’s requirements change.​These practices are already visible in automotive in many ways: Electrification and autonomous driving have opened the door for new entrants, which in turn is encouraging development of ground-up unified platforms and a leap forward in functionality and performance within the in-cabin experience.​In energy management and in particular electrification, the fragmented ecosystem of supply and infrastructure is coming together to solve the problems of renewable energy creation, storage, supply and resilience. In industrial automation, faults aren't just detected but anticipated with smart sensors and AI.​The nascent market for robotics is transforming not only on the back of developments in computational capability and sensors, but also in the efficiency of actuators and material science. And even consumer electronics is becoming connected in ways previously unimagined.​The Next Layer Of Semiconductor ValueIn general, the industry doesn't lack innovation. But it does require more system-aware innovation. We need to take ownership of this middle layer, where integration decisions are made and system performance is defined. That's where the next phase of value will be created.​Forbes Technology Council is an invitation-only community for world-class CIOs, CTOs and technology executives. Do I qualify?