The OSD32MP2x-PM has been shortlisted for Embedded Solution Product of the Year in the 2026 Instrumentation & Electronics Awards. Learn more about the recognition and cast your vote for Octavo Systems.
Lean embedded teams often juggle hardware, firmware, and software responsibilities. Learn how architecture decisions and System-in-Package (SiP) designs help reduce complexity and protect engineering time.
The hidden costs of discrete design aren’t found in the BOM alone. PCB complexity, component qualification, and supply chain risk can all impact development timelines and product stability. Explore how the OSD32MP15x System-in-Package helps simplify embedded design by integrating critical system functions into a single package.
Most SiP vs SoC comparisons stop at definitions. The real question is how each option affects layout complexity, bring-up risk, development timelines, and your path to a working system. Here’s what the decision actually means in practice.
Most board spins are not caused by mistakes. They are caused by decisions that carry risk into hardware. Here is what a board spin actually costs and why the same teams keep experiencing them.
DDR pricing has nearly tripled in some cases, and availability is increasingly unpredictable. But the real cost is not the price increase. It is the validation work, board spins, and schedule risk that follow every sourcing change. This piece breaks down where DDR risk actually shows up in embedded designs, and why more teams are moving memory complexity upstream.
As embedded systems shrink, where complexity lives matters more than ever. See how System-in-Package integration simplifies DDR routing, reduces risk, and improves performance per area.
Compare SiP and discrete integration beyond BOM cost. Learn where SiP reduces assembly steps, test time, and rework to accelerate embedded hardware ramps.
Compact industrial designs eventually reach a tipping point where board density, thermal limits, and long-term reliability collide. System-in-Package integration helps embedded teams manage complexity by relocating the most sensitive interactions off the PCB and into a pre-validated device.
Modern PCBs are being asked to support more functionality than ever before. As embedded systems grow more capable, board-level decisions now play a central role in shaping system behavior, reliability, and scalability.
SiP vs SoM: What is the Difference? Equivalent AM335x designs in SoM versus SiP solutions When we introduce new customers
System-in-Package (SiP) technology isn’t just about integration, it’s a smarter way to cut costs. By consolidating core components into a single, validated package, SiPs reduce BOM complexity, shorten design cycles, and minimize supply chain risks.
Complex interfaces and layout challenges can slow a project down. SiP integration streamlines those problem areas by combining key components into one proven package.
The global chip shortage revealed a core weakness in embedded technology: systems lacked resilience. Read how the crisis reshaped design, shifting the focus from raw performance to integration and long-term stability.
Embedded hardware costs extend far beyond the BOM. Hidden engineering, manufacturing, and supply chain factors often shape the true project cost, and integrated compute solutions help reduce risk and uncertainty.
Hardware development timelines are more demanding than ever. Moving complexity off the PCB with integrated compute solutions helps teams reduce risk, simplify prototyping, and accelerate time-to-market without sacrificing reliability or features.
Embedded systems are enabling smaller, smarter devices without adding complexity. By integrating processors, memory, and power management into optimized platforms, teams can save space, simplify design, and accelerate development—all while improving reliability and performance.
Embedded development is no longer optimized for performance alone. As systems grow more complex, priorities are shifting toward predictability, time-to-market, and reducing downstream risk. This post explores how those changing tradeoffs are reshaping design decisions across the product lifecycle.
Embedded systems don’t usually fail because of a single component. Complexity builds quietly across interfaces, assumptions, and interactions, only becoming visible once real hardware comes together. By the time it surfaces, options are often limited.
Board-level optimization powered generations of embedded innovation. But as modern systems grow more capable and interconnected, the limits of that approach are becoming harder to ignore—and system-level behavior is where complexity now takes shape.
There has been multiple revisions to the OSDZU3-REF and some of the documentation is for specific revisions.
The revision of your OSDZU3-REF is printed under the fan next to the Octavo Systems logo. See the image below.
If there are multiple versions of a document make sure you select the one that matches your revision.
