AI Chips • Advanced Packaging

Supersizing AI: The Changing Role of Advanced Packaging

The AI industry has spent the past several years pursuing a familiar scaling formula: larger accelerators, more HBM, larger interposers, and increasingly sophisticated packaging. While this formula remains effective for frontier-model training, it is no longer sufficient to explain the direction of the broader AI hardware market.

As inference takes up more of the AI compute workload, new needs are coming up around cost, energy use, and total cost of ownership. The result is an AI packaging ecosystem that is both growing in scope and splitting into several different architectural directions.

 

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Learn how advanced packaging is adapting to meet the demands of the AI industry and how these changes reflect in technology roadmaps and market forecast.

October 22, 2026

Three shifts in the advanced packaging landscape

Three related changes show how this landscape is evolving and what it might mean for packaging suppliers.

1. Inference-centric architectures are changing the performance and economic requirements placed on AI hardware.

2. Memory innovation is altering the traditional relationship between bandwidth, capacity, and package footprint.

3. Packaging technologies themselves are becoming more diverse and competitive, with new approaches emerging to address the industry's evolving technical and economic constraints.

Source: Insight: Supersizing AI with Advanced Packaging (TechInsights)

Among these shifts, inference provides a clear example of how changing workload economics are leading to greater architectural diversity. The token economy is forcing system architects to optimize not only for raw performance but also for the cost and energy consumed per token generated. In many cases, the primary competitive metric is no longer training time, but rather how efficiently an AI platform can deliver inference capacity at hyperscale.

Key Takeaway

These new priorities are already affecting how compute, memory, and packaging are combined.

How AI inference is expanding the range of viable packaging architectures

While training systems still rely heavily on HBM capacity and bandwidth, many inference workloads prioritize low latency, high token throughput, and efficiency over maximum memory bandwidth. This difference creates opportunities to optimize AI systems differently at both the package and system levels.

A good example is NVIDIA's decision to integrate technology from Groq into its next-generation inference ecosystem, highlighting the growing attractiveness of HBM-less architectures for pure inference acceleration. By eliminating dependence on large HBM banks and using monolithic silicon with on-board SRAM, these devices can achieve competitive inference performance without requiring a complex 2.5D integration strategy.

Removing HBM also reduces package complexity, lowers manufacturing cost, simplifies power delivery, and allows for more conventional packaging approaches. At the system level, it also places greater emphasis on networking infrastructure, as disaggregated memory and distributed inference become increasingly important sources of scale.

Key Takeaway

Other approaches point in different directions. Such as near-memory architectures like Qualcomm's High Bandwidth Compute (HBC) technology and wafer-scale systems like Cerebras' Wafer Scale Engine (WSE) family. These examples demonstrate the growing range of architectural models used for AI scaling. They also show why packaging requirements may become less uniform as different approaches to compute and memory advance.

Why advanced packaging is becoming an architectural decision

The advanced packaging market is growing and moving toward a more mixed and integration-heavy set of package architectures. As shown above, different ways of handling compute and memory can require different packaging. For suppliers, this means it's more important than ever to understand how these strategies are evolving and what packaging they need.

TechInsights forecasts datacenter compute processor package shipments will rise from 45.2 million units in 2025 to 102.7 million units in 2030, representing a compound annual growth rate of approximately 15%. The market is expanding as its technical requirements are becoming less uniform.

The full TechInsights analysis looks at other forces contributing to this diversification. We explore how packaging is adapting to meet the demands of advanced memory systems, take a closer look at bridge-based approaches such as CoWoS and EMIB, explore the growing disconnect between packaging innovation and predetermined scaling roadmaps, and show how these packaging strategies are performing in market forecasts.

 

TechInsights

 
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