Die Attach Sintering Materials including Silver, Copper for Semiconductors.

Die Attach Sintering Materials including Silver, Copper for Semiconductors. With a commitment to sustainability, our High-precision die attach products and solutions products are PFAS-free and designed for reliable bonding in advanced semiconductor assembly.

Advanced Die Attach Materials

Our solutions enhance die attach performance. Featuring sintering and Polyfluoroalkyl Substance (PFAS)-free materials, these advanced die attach materials deliver superior bonding, thermal efficiency, and long-term reliability for high-performance semiconductor assemblies.

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Reliable Die Attach Solutions

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Ensure Strong Adhesion

Our die attach materials provide dependable performance, ensuring strong adhesion and optimal thermal conductivity for semiconductor applications.

Enhance Thermal Conductivity

Our advanced die attach materials enhance thermal conductivity, promoting efficient heat dissipation and increasing the reliability of semiconductor devices.

Achieve Consistent Performance

Versatile die attach solutions tailored to meet diverse semiconductor assembly requirements, delivering consistent performance across applications

Benefit from Long Lasting Reliability

Experience advanced die attach technology, ensuring optimal device performance and long-lasting reliability in semiconductor manufacturing.

Boost Performance in Modern Semiconductors

Our revolutionary die attach materials provide the reliability and efficiency needed in modern semiconductor assembly, supporting high-performance applications.

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Conductive

Enhance Performance with ATROX® Conductive Materials

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Hybrid Sintering

Boost Reliability with ATROX Hybrid Sintering

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Why MacDermid Alpha?

Integrated Solutions
Our integrated semiconductor solutions combine PFAS-free die attach materials - including conductive and sintering options - with advanced thermal management to improve adhesion, package reliability, and thermal performance in semiconductor packaging. Engineered for high-reliability applications, they enhance device longevity and enable sustainable, energy-efficient assembly while supporting reduced environmental impact and compliance with global EH&S and PFAS-reduction regulations across automotive, industrial, and power electronics systems.

Sustainability
PFAS-free and halogen-free die attach materials support compliance-focused semiconductor packaging by improving process efficiency and environmental performance. Available in conductive and non-conductive formulations, these advanced technologies enable sustainable semiconductor assembly by reducing environmental impact, supporting EH&S and regulatory compliance, and helping manufacturers achieve scalable, high-reliability production with safer global supply chain solutions.

Reliability
Our die attach materials improve thermal conductivity, adhesion strength, and mechanical integrity in semiconductor packaging, power electronics, and high-density device applications. Engineered to reduce thermal resistance and enhance heat dissipation, they deliver high-reliability performance under power cycling and elevated temperatures, minimizing failure risk and ensuring long-term device stability in advanced semiconductor assemblies.

Semiconductor Die Attach

Frequently Asked Questions

What is die attach material in semiconductor packaging?

Die attach material is used to bond a semiconductor die to a substrate or leadframe while providing mechanical stability and efficient heat dissipation in semiconductor packaging. Our PFAS-free die attach materials - including silver, copper, conductive, and non-conductive options - deliver reliable adhesion, strong thermal performance, and sustainable solutions for advanced semiconductor assembly applications.

How does the sintering process work in semiconductor die attach?

Sintering in semiconductor die attach is a solid-state bonding process in which fine metal particles fuse under controlled heat and pressure below the metal’s melting point. This process forms a dense, conductive joint with strong thermal conductivity, mechanical strength, and high-temperature reliability. In power electronics and semiconductor packaging, sintering enables high-reliability die attach solutions with stable performance, improved thermal management, and long-term durability in demanding applications.

What does conductive die attach do in semiconductor packaging?

Conductive die attach provides both mechanical bonding and an electrical path between the semiconductor die and substrate, enabling efficient current flow and heat dissipation. It plays a critical role in power electronics and advanced semiconductor packaging by improving thermal management, electrical conductivity, reliability, and overall device performance in high-performance applications.

Are semiconductor die attach materials RoHS compliant?

Yes, our semiconductor die attach materials are designed to meet Restriction of Hazardous Substances (RoHS) requirements, supporting global electronics compliance and sustainable semiconductor manufacturing. These solutions help reduce environmental impact, improve supply chain transparency, and support EH&S and industry sustainability goals. Product-level compliance should be confirmed for the specific conductive or non-conductive die attach material selected for advanced packaging applications.

Why choose MacDermid Alpha die attach solutions for semiconductor packaging?

We provide reliable, high-performance die attach solutions designed for strong adhesion, superior thermal management, and long-term device stability in semiconductor packaging. Our portfolio includes PFAS-free and application-specific materials engineered for power electronics, microelectronics, and advanced packaging, enabling consistent yield, elevated temperature reliability, and sustainable semiconductor manufacturing performance across demanding applications.

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