01 Fluxless Bonding Reducing Contamination in Advanced Packaging Finer interconnect pitches and higher-density semiconductor packages make flux residue more difficult to remove and increase the risk of contamination around bonded interfaces. Fluxless thermo-compression bonding is therefore moving into advanced packaging workflows; ASMPT reported in 2026 that its fluxless AOR process was under qualification for HBM4 16-high memory applications, showing how clean bonding methods are being adapted for next-generation memory stacks. The result is a more advanced Die Attach Machine Market where clean bonding, HBM packaging, precision thermal control, and semiconductor assembly reliability become more important machine capabilities.
02 High-Force Bonding Expanding Machine Capability for Complex Packages Larger chiplets, interposers, and multi-die packages require tighter control over bonding pressure because different package structures and die sizes need different force profiles. High-force die attach platforms are therefore expanding their operating range; Besi’s 9800 TC next thermo-compression system provides bonding force of up to 500 N with an optional upgrade to 1 kN for demanding advanced packaging applications. The result is a more capable Die Attach Machine Market where high-force bonding, chiplet integration, precision alignment, and heterogeneous packaging support increasingly complex semiconductor architectures.
01 Power Semiconductor Production Supporting Specialized Machine Demand and OSAT Capacity Expansion Strengthening Equipment Procurement Drive Market Power semiconductor production creates demand for die attach machines because discrete and compound semiconductor devices require precise die placement, reliable bonding, and controlled thermal interfaces during packaging. India’s 2025 semiconductor program continued to support compound semiconductor, discrete semiconductor, sensor, and packaging facilities with fiscal assistance of up to 50% of eligible capital expenditure. Automotive, power, and telecom applications are major users of mature-node and power devices, which strengthens packaging requirements for diodes, MOSFETs, IGBTs, and related components. This demand-side transition supports procurement of specialized die attach machines for high-reliability power semiconductor assembly. OSAT capacity expansion strengthens equipment procurement as new assembly and testing facilities require die attach, bonding, inspection, and packaging machinery across production lines. One of India’s first end-to-end OSAT pilot facilities opened in Sanand in August 2025 with investment of more than ₹7,600 crore across two facilities; its first unit can handle about 0.5 million chips per day, while the second is planned to reach 14.5 million units per day. Such capacity additions translate directly into demand for die placement and attachment equipment used before downstream bonding and testing stages. This supply-side expansion strengthens the installed base of die attach machines across semiconductor packaging operations.
September 2025 Panasonic Industry expanded its semiconductor manufacturing equipment solutions by enhancing die bonding technologies for automotive electronics, power semiconductors, and electronic component applications.
July 2025 Besi expanded its die attach equipment portfolio with new hybrid bonding and advanced packaging solutions designed for high-density semiconductor applications. The company focused on supporting chiplet architectures, AI processors, and advanced semiconductor integration.
June 2025 Kulicke & Soffa Industries expanded its advanced packaging equipment portfolio by enhancing die bonding technologies for semiconductor manufacturing. The developments focused on improving precision, throughput, and reliability for next-generation chip packaging.
May 2025 ASMPT expanded its semiconductor assembly equipment portfolio by introducing advanced die attach solutions with improved placement accuracy, automation capabilities, and support for high-performance semiconductor packaging applications.