The Multi-Million Euro “Dirt” Problem: Why Atomic-Level Purity is the New Business Critical for GAA

In the race toward sub-3nm nodes, Gate-All-Around (GAA) is the undeniable future. It offers superior electrostatic control and the scalability required to keep Moore’s Law alive. Yet, for manufacturing leaders, GAA presents a paradox: the very architecture that drives performance also introduces a new frontier of vulnerability—atomic-level defects. As we transition from FinFET to GAA … Read more

The Hidden Cost of Complacency: Why Semiconductor Companies Can’t Afford to Ignore Atomic-Level Defects

As semiconductor nodes shrink past 3nm and the industry races toward angstrom-scale manufacturing, a troubling pattern has emerged: many companies continue treating atomic-level defects and contamination as manageable nuisances rather than fundamental threats to Moore’s Law economics. This status quo mentality isn’t just short-sighted—it’s actively preventing the industry from capitalizing on emerging opportunities, such as … Read more

Bridging Design and Manufacturing: Tackling Atomic-Level Defects for Better Chips

In the semiconductor industry, the pressure to deliver faster, more reliable and more energy-efficient devices grows with every process node. At 5nm, 3nm and soon even 2nm, the margins for error are almost nonexistent. Atomic-level defects and trace contamination — once considered secondary issues — now determine whether a chip meets performance and yield targets. … Read more

Overcoming Atomic-Level Defects in GAA Designs: Challenges and Opportunities for the Semiconductor Industry

As the semiconductor industry marches toward ever-smaller nodes and higher performance targets, Gate-All-Around (GAA) transistors have emerged as a promising architecture for pushing Moore’s Law forward. Offering significant improvements in electrostatic control, reduced short-channel effects and better scalability than FinFETs, GAA is on the edge to become the foundation for next-generation chips. Yet, while GAA … Read more

Case Study: Enhancing Chip Yield and Assembly Efficiency Through Advanced Surface Passivation

A global leader in radiation detection and safety faced critical efficiency and yield challenges during the assembly and testing phase of their neutron detector sensor chips. The indispensable wafer dicing process – whether utilizing saws or lasers – created atomic-scale defects and contamination, that introduced large variation and Signal-to-noise levels for their detector sensor chips. … Read more

Interface-Defect Density Kills Chip Performance

Defects have been one of the biggest issues for the semiconductor industry since its day one causing yield loss, reliability issues, and performance bottlenecks.   As logic and memory nodes shrink, there is a shift from particle-level defects to atomic-level defects where interface defects are at focus area. These interface imperfections form electrical traps, pinholes, and localized leakage paths in thin films.  Why Interface Defect Reduction Matters for … Read more

How atomic-level cleaning technologies help meet challenges in medical ICs

In medical integrated circuits (ICs), ensuring the highest quality and performance is critical. Medical ICs are used in a variety of sensitive applications, including diagnostic devices, implants, medical imaging, and monitoring equipment. These ICs require extreme reliability, precision, long-term-stability and durability to ensure that medical devices function correctly and meet safety standards. Also, malfunctions in … Read more

Why Semiconductor R&D Teams Must Consider Atomic-Level Defects and Contamination in Chip Design

In the race to develop faster, smaller and more energy-efficient chips, design teams often focus intensely on architecture, functionality and scaling strategies. However, an often-underappreciated factor — atomic-level defects and contamination — plays a critical role in determining whether a design will meet real-world performance, yield and cost targets. As semiconductor nodes push into the … Read more

Turning OSAT Challenges into Opportunities: How Sidewall Passivation Can Drive Yield and Market Advantage 

Outsourced Semiconductor Assembly and Test (OSAT) providers operate in one of the most competitive segments of the semiconductor value chain. Margins are thin, customer expectations are rising and differentiation is hard to achieve in what often feels like a commoditized service market. OSATs face three major business pressures:  For OSATs, these challenges are amplified because … Read more

AI at the Edge: Why Power Consumption Becomes Mission Critical

Edge devices — from smartphones to IoT sensors, wearables and remote embedded systems — are increasingly expected to run AI inference locally. The benefits are many: reduced latency, lower bandwidth demands, improved privacy, resilience without continuous cloud access. But these benefits bring a severe constraint: power. Edge devices are often battery-powered or otherwise tightly constrained … Read more