Report Description Table of Contents Introduction And Strategic Context The Global Die Attach Equipment Market is projected to advance steadily, registering a CAGR of 6.8% between 2024 and 2030. The market is valued at approximately USD 1.2 billion in 2024 and is set to reach USD 1.8 billion by 2030, according to Strategic Market Research. Die attach equipment, sometimes referred to as die bonders, forms the backbone of semiconductor packaging. These machines are responsible for mounting semiconductor dies onto substrates or packages with extreme precision — a step that directly affects device performance, reliability, and production yield. As semiconductors continue to power everything from consumer electronics to automotive systems, the relevance of die attach tools is expanding far beyond traditional boundaries. Several structural shifts are shaping the landscape between 2024 and 2030. On the demand side, advanced packaging technologies such as 2.5D/3D IC integration, heterogeneous integration, and system-in-package ( SiP ) architectures are driving the need for more accurate, high-throughput die attach solutions. At the same time, the automotive sector is fueling demand for power semiconductors and wide bandgap materials like SiC and GaN, both of which require specialized bonding techniques. Supply chains are also evolving. Southeast Asia remains a global hub for outsourced semiconductor assembly and test (OSAT) players, but equipment adoption is rising in the U.S., Taiwan, South Korea, and China as countries ramp up domestic semiconductor manufacturing under national strategies like the U.S. CHIPS Act and China’s “Made in China 2025.” Key stakeholders in this market include original equipment manufacturers (OEMs) designing next-gen die bonders, semiconductor foundries scaling up advanced packaging lines, automotive and consumer electronics firms demanding higher reliability chips, and governments and investors supporting domestic capacity. To be honest, die attach equipment has historically been a quiet corner of semiconductor manufacturing. But as packaging becomes the new battleground for performance gains, these machines are moving from the background to the center of strategic conversations. Market Segmentation And Forecast Scope The die attach equipment market can be segmented based on technology type, application, bonding material, end user, and geography. These categories reflect how the semiconductor industry’s evolving needs shape machinery design, throughput expectations, and material compatibility. Here’s how the segmentation unfolds: By Technology Type Flip Chip Bonder Used for high-density, high-performance packages — especially in mobile, AI, and HPC applications. Flip chip systems use solder bumps to attach dies directly to substrates, minimizing signal path and power loss. Die Bonder (Epoxy and Solder) Traditional bonders that use adhesives or solder paste to attach dies. These remain dominant in power electronics and general-purpose ICs. Eutectic Die Bonder Used for precision applications where thermal conductivity and bond integrity are critical — such as optoelectronics or RF modules. Hybrid Bonding Equipment An emerging category combining electrical and mechanical interconnect in one step. This is gaining traction in 3D packaging and stacked memory chips. Flip chip technology accounted for just over 37% of market share in 2024 , driven by its adoption in high-end applications across data centers and smartphones. Hybrid bonding, though smaller in base, is the fastest-growing segment and could reshape the industry by 2030. By Application Consumer Electronics High volume, short lifecycle products like smartphones, tablets, and wearables dominate demand. Speed and cost-effectiveness matter most here. Automotive Electronics The rise of EVs and ADAS systems requires thermally stable and vibration-resistant packages — a stronghold for high-reliability die attach systems. Industrial Equipment Includes factory automation, power tools, and control systems. Focus is on long lifecycle, rugged components, and moderate-volume packaging. Telecom & Data Centers Driven by 5G infrastructure and AI compute demands, this segment is pushing die attach precision to sub-micron levels for high-bandwidth applications. Healthcare & Medical Devices Niche applications like implantable electronics and diagnostics — usually require small batch runs with extreme reliability. The automotive segment is growing fastest due to surging power device demand, especially in SiC -based EV inverters and charging modules. By Bonding Material Epoxy Adhesives Still widely used for general IC packaging due to low cost and ease of handling. Solder Paste / Preform Preferred in power devices and optoelectronics for their thermal and electrical conductivity. Silver Sintering Paste Emerging as a premium material in EVs and RF packaging where performance justifies cost. Silver sintering-based die attach is gaining share as EVs and power modules demand higher conductivity and thermal reliability. By End User Integrated Device Manufacturers (IDMs ) In-house chipmakers like Intel, Samsung, and Texas Instruments who own both front-end and back-end operations. OSATs (Outsourced Semiconductor Assembly and Test ) Third-party service providers such as ASE, Amkor, and JCET — dominant adopters of die attach tools globally. R&D Labs and Equipment Integrators Academic institutions and fab tool integrators evaluating new die attach workflows for next-gen chip packaging. OSATs make up the largest buyer segment — they prioritize flexibility, fast changeover, and cost-efficiency at scale. By Region Asia Pacific leads in both manufacturing volume and equipment adoption, with China, Taiwan, and South Korea as key hubs. North America is gaining momentum due to federal incentives for domestic chip production. Europe maintains niche strength in automotive semiconductors and advanced research packaging, especially in Germany and the Netherlands. LAMEA is still in early stages, but countries like Brazil and UAE are exploring semiconductor assembly lines as part of digital economy expansion. Scope Note: While segmentation may seem technical, it's becoming a strategic lens for investment. Equipment vendors now bundle machines with bonding materials and software — transforming "equipment sales" into long-term platform engagements. Market Trends And Innovation Landscape The die attach equipment market is undergoing a quiet transformation. As advanced packaging replaces traditional scaling as the next frontier for semiconductors, innovation in die bonding tools is no longer optional — it’s critical. Over the next few years, several forces are set to reshape how these machines are built, sold, and integrated into production lines. High-Precision Bonding Is Now Tablestakes With node sizes shrinking and package complexity increasing, modern die attach systems must meet accuracy thresholds once reserved for niche applications. Today, ±1 μm placement accuracy is becoming the new standard, especially in flip-chip and hybrid bonding systems. Manufacturers are integrating closed-loop vision systems, laser alignment, and AI-assisted motion controls to reduce placement error and cycle time. An executive from a European packaging line put it simply: “You can’t talk about advanced ICs and still be off by a micron.” Hybrid Bonding Is the Industry’s Next Leap What started as a research concept is now becoming commercially viable. Hybrid bonding — which bonds metal and dielectric surfaces simultaneously — is key to enabling 3D IC stacks and Heterogeneous Integration. It eliminates the need for micro-bumps and all ows denser interconnects with better electrical performance. Leading equipment vendors are racing to deliver fully integrated hybrid bonding modules that can be slotted into existing advanced packaging lines. Expect to see major adoption in memory chips (HBM), chiplets , and AI processors by 2026. Materials Innovation Is Driving Equipment Redesign Wide-bandgap semiconductors like Silicon Carbide ( SiC ) and Gallium Nitride ( GaN ) are pushing the limits of traditional bonding techniques. These materials operate at high voltage and temperature, demanding silver sintering and eutectic bonding instead of epoxy or solder. In response, OEMs are developing machines with enhanced thermal control, pressure precision, and sintering capability — tailored specifically for power electronics. AI and Predictive Maintenance Are Entering the Workflow As packaging lines grow more complex, downtime becomes more expensive. Vendors are embedding predictive analytics into die attach machines to monitor tool wear, bonding quality, and thermal drift in real time. Remote diagnostics and cloud-based dashboards are becoming standard features — especially for OSATs managing high-volume lines across multiple regions. In one use case, a Taiwan-based OSAT reduced unplanned downtime by 27% within a year of implementing AI-based failure alerts on its die bonder fleet. Modularity and Automation Are the New Competitive Edges No two packaging lines look the same anymore. So, buyers want equipment that’s modular — capable of switching between bonding methods or package types with minimal retooling. Auto tool changers, multi-head platforms, and “bonding-as-a-service” software layers are emerging features. These innovations help fabs future-proof investments without locking into a single process flow. To be honest, the machine isn’t just a machine anymore. It’s a platform — and flexibility is the currency. M&A and Tech Partnerships Are Accelerating Over the past 18 months, the market has seen a wave of acquisitions, particularly where traditional equipment giants acquire niche bonding tech startups. We’re also seeing alliances between toolmakers and AI software firms, or between materials suppliers and equipment OEMs, to co-develop process recipes. Bottom line: Die attach innovation used to be a backend afterthought. That’s changed. With 3D packaging, chiplet architecture, and power electronics reshaping semiconductor design, these machines are now at the core of performance engineering. Competitive Intelligence And Benchmarking The die attach equipment space may appear consolidated, but it’s far from static. As the semiconductor packaging paradigm shifts from wire bonding to flip-chip and hybrid techniques, market leaders are retooling their strategies. Success here isn’t just about machine precision — it’s about ecosystem alignment, materials integration, and the ability to adapt to customer roadmaps. ASMPT Long regarded as a dominant force in the die attach ecosystem, ASMPT offers a broad portfolio that spans traditional epoxy bonders to advanced flip-chip and thermocompression systems. Their key strength lies in vertical integration — from tools and feeders to process software and after-sales service. They’ve invested heavily in smart factory automation, including AI-powered process control, which resonates with high-volume OSATs. One edge? Their global field service network, which ensures uptime even in fragmented manufacturing geographies like Southeast Asia. Kulicke & Soffa (K&S) A legacy leader in wire bonding, K&S has successfully pivoted into the die attach space — especially with its offerings in hybrid bonding and thermocompression. The company emphasizes modularity and mid-volume flexibility, making it appealing to both IDMs and packaging innovators. They’re also collaborating with chiplet ecosystem players to tailor their machines for next-gen 3D architectures. K&S may not dominate in raw volume, but they’ve carved out a high-growth niche in heterogeneous integration — and they’re doubling down. BESI (BE Semiconductor Industries) Netherlands-based BESI is a major force in advanced packaging, especially in eutectic and thermocompression bonding. Their hybrid bonding systems are considered among the most precise in the industry. They lean into European semiconductor roadmaps — especially for automotive electronics and power modules — and have strong penetration in SiC and GaN packaging lines. BESI's ability to balance innovation with reliability makes them a key partner in R&D-heavy regions like Germany and Japan. Palomar Technologies A strong player in optoelectronics and RF packaging, Palomar focuses on high-precision, low-volume die attach — ideal for aerospace, telecom, and medical electronics. They differentiate by offering customizable solutions for void-free bonding and are often selected for defense-grade or ultra-high-reliability use cases. To be honest, Palomar doesn’t chase volume — they chase perfection. And they do it well. Shinkawa Ltd. A legacy Japanese brand with a solid footprint in die bonders for MEMS and small ICs, Shinkawa emphasizes thermal control and automation consistency. Their systems are popular among Japanese IDMs and integrated assembly lines that value tight process repeatability. Toray Engineering While not as globally visible, Toray holds niche leadership in die attach systems for flexible electronics and photonics. Their tools cater to custom substrates and novel materials — a growing sub-market as applications like AR glasses and biosensors mature. Competitive Snapshot Company Strength Strategic Focus ASMPT Volume, vertical integration AI-driven process optimization K&S Flexibility, hybrid bonding Chiplet and mid-volume production BESI Precision, European partnerships Automotive and power semiconductors Palomar Ultra-high reliability Aerospace, telecom, medical Shinkawa Process stability Japanese IDMs, MEMS packaging Toray Material innovation Flexible & optical electronics It’s worth noting that startups and niche players are also entering with micro-precision bonding modules, often designed for lab-to-fab translation. However, the market still rewards those who can scale — both in support and throughput. In this market, technical differentiation helps you enter. But global service, process control, and application alignment keep you in the game. Regional Landscape And Adoption Outlook The die attach equipment market follows the flow of semiconductor assembly — and that flow is shifting. While Asia continues to dominate high-volume manufacturing, new investment cycles in the U.S. and Europe are changing the geography of equipment demand. Regional dynamics are being shaped by industrial policy, chip sovereignty efforts, and technology readiness across packaging tiers. Asia Pacific Unsurprisingly, Asia Pacific is the center of gravity. Countries like China, Taiwan, South Korea, and Malaysia dominate OSAT operations, accounting for the majority of die bonder installations globally. Taiwan leads in flip-chip and advanced packaging deployment, largely through giants like TSMC and ASE. China is pouring resources into domestic equipment sourcing as part of its semiconductor independence strategy. Local manufacturers are investing in both traditional die attach tools and next-gen hybrid bonding machines. South Korea, home to memory titans like Samsung and SK hynix, is increasingly investing in die attach lines optimized for 3D memory stacks. Southeast Asia — especially Malaysia and Vietnam — serves as a flexible, cost-efficient manufacturing base for OSATs, with rising demand for compact and modular bonding systems. Also, let’s not forget Japan — a quiet but critical hub for precision packaging tools and R&D in high-reliability bonding for automotive and medical. North America This region is experiencing a strategic resurgence. Spurred by the CHIPS and Science Act, U.S. semiconductor fabs and advanced packaging facilities are receiving billions in public and private investment. Intel’s packaging facility in Arizona and TSMC’s U.S. operations are creating fresh demand for high-end die attach platforms, particularly for hybrid bonding and SiC device packaging . North America’s needs are more focused on: Precision and flexibility over volume Integration with AI inspection tools Cyber-secure, remotely operable systems While the region doesn't yet rival Asia in volume, it's becoming the proving ground for next-gen tools that will shape future global standards. Europe Germany, the Netherlands, and France lead Europe’s push into high-reliability semiconductor packaging — particularly for automotive and industrial applications. Europe’s strength lies not in massive OSAT capacity, but in: Advanced R&D labs Power electronics ( SiC -based EV modules) Packaging for aerospace and defense European chip makers, like Infineon and STMicroelectronics, rely heavily on die attach systems that support silver sintering and eutectic bonding, often under cleanroom conditions. Also, EU’s “Chips Act” and national funds are supporting pilot lines for heterogeneous integration, creating long-term pull for die attach innovation. Latin America, Middle East, and Africa (LAMEA) This region remains early-stage in semiconductor assembly, but pockets of progress exist: Brazil is exploring semiconductor investment zones, backed by energy access and academic partnerships. The UAE and Saudi Arabia are funding tech parks and smart city projects that may eventually seed domestic chip assembly capabilities. Africa, while limited in infrastructure, is gaining attention as a potential base for specialized, low-volume electronics manufacturing tied to telecom and IoT . That said, most of the equipment shipped to LAMEA goes toward legacy packaging, prototyping labs, or academic fabs — with minimal presence in advanced bonding systems. Regional Dynamics in a Nutshell: Region Key Focus Status Asia Pacific High-volume OSATs, flip-chip, hybrid bonding Dominant and still expanding North America Precision bonding, CHIPS Act-driven demand High strategic importance Europe Automotive and industrial semiconductors Advanced R&D and niche packaging LAMEA Early-stage capacity, state-driven tech zones Watching brief for long-term potential The takeaway? Die attach isn’t just a story of tech — it’s geopolitics, industrial policy, and supply chain resilience. And regional readiness is no longer just about headcount — it’s about capability maturity. End-User Dynamics And Use Case In the die attach equipment market, end users fall into sharply defined categories — and their requirements vary just as sharply. From high-volume contract manufacturers to in-house chip designers chasing bleeding-edge performance, each stakeholder is pushing vendors to deliver precision, flexibility, and integration in different ways. Integrated Device Manufacturers (IDMs) These are large-scale semiconductor players like Intel, Samsung, and Texas Instruments who run both front-end fabrication and back-end packaging lines. For IDMs, die attach isn’t just about assembly — it’s a core process that impacts electrical performance, thermal management, and yield optimization . They often demand: Extremely low placement tolerance (±1 μm or better) Compatibility with in-house material stacks Seamless integration with AI-driven inspection and test systems IDMs also use die attach tools in pilot R&D lines, where machines need to be reconfigurable for frequent recipe changes. To be honest, IDMs view die attach machines less as tools — and more as strategic enablers of their product roadmap. Outsourced Semiconductor Assembly and Test (OSAT) Providers This is the largest and most commercially influential group. Players like ASE Group, Amkor, JCET, and UTAC operate high-volume packaging facilities, mostly in Asia, serving fabless chip companies. Their priorities are different: Speed and uptime matter more than absolute precision Machines must handle multiple package types with minimal downtime Serviceability, spares availability, and cost per unit throughput are key selection criteria Die bonder vendors that offer modular platforms, intuitive GUIs, and predictive maintenance features are winning here. Specialized R&D Centers and Fabless Startups In regions like North America, Europe, and Japan, academic consortia and early-stage chip innovators are setting up prototype packaging lines. These users often require: Flexible tools that support flip-chip, eutectic, and silver sintering Small footprint, lab-grade systems Capability to bond non-standard die sizes or substrates Use cycles are low, but expectations are high — especially in emerging areas like chiplet packaging , neuromorphic hardware , or photonics . Automotive and Power Semiconductor Lines These facilities, often linked to players like Infineon or STMicroelectronics , have stricter standards around thermal stress, bond voids, and vibration resistance . Die attach tools here need to support: High-pressure bonding for power devices Silver sintering workflows Inline metrology for quality assurance In these use cases, bond integrity over time often matters more than raw throughput. Use Case Highlight A European OSAT specializing in automotive-grade SiC modules needed to reduce bond failure rates during thermal cycling tests. Traditional epoxy bonders weren't cutting it. They switched to a dual-head die bonder equipped with silver sintering capability and inline thermal monitoring. The machine could bond two power dies simultaneously with uniform pressure control. Within three quarters: Thermal failure rates dropped by 46% Bond void incidence was cut in half The client won new Tier 1 automotive business based on reliability metrics More than a machine upgrade, this was a credibility boost that unlocked new revenue streams. Bottom line: Whether you're running a mega-OSAT line or a university cleanroom, die attach equipment is increasingly specialized. The winners in this market aren’t building one-size-fits-all machines — they’re building adaptive systems that flex to the end user’s workflow, substrate, and strategy. Recent Developments + Opportunities & Restraints The die attach equipment landscape is evolving faster than it has in over a decade. Strategic investments, material breakthroughs, and the push toward advanced packaging are pushing manufacturers to rethink the role of bonding systems on the assembly line. Below is a roundup of the most important recent moves — and what’s likely to accelerate or limit market growth ahead. Recent Developments (Last 2 Years) BESI launched its hybrid bonding equipment line in 2024 targeting logic-memory co-packaging for AI processors. Early customers include tier-1 memory firms and U.S. pilo t fabs working on 3D-IC stacks. ASMPT unveiled a modular die bonder in late 2023 with dual-mode bonding (flip-chip and eutectic) on the same platform. It’s aimed at high-mix OSAT environ ments where flexibility is key. Kulicke & Soffa entered a partnership with a chiplet design consortium to co-develop custom bonding recipes for advanced interposer-based architectures, signaling a pivot toward packa ging-centric design enablement. Palomar Technologies began shipping its void-free eutectic bonding platform to medical device and aerospace firms in early 2024. Designed for ultra-high reliability use cases, it’s seeing tract ion in optoelectronics. Toray Engineering released a die bonder optimized for flexible substrates , marking a foray into emerging markets like wearabl e sensors and foldable devices. Opportunities Rise of 3D and Chiplet Architectures As Moore’s Law slows, more performance is being squeezed from advanced packaging. Hybrid bonding and chiplet integration require ultra-precise, multi-die bonding systems — a massive opportunity for equipment vendors that can support co-packaging flows. Electrification of Transportation The shift to EVs and autonomous systems is increasing demand for high-temperature, high-reliability bonding in power modules and control units. Silver sintering and eutectic die attach systems are gaining ground in this segment. Regionalization of Semiconductor Supply Chains With countries investing in sovereign chip production, localized packaging facilities are emerging. This opens doors for equipment vendors to establish new relationships with first-time buyers in North America, Europe, and the Middle East. It’s not just about tools anymore — vendors that offer process know-how and service uptime will lead in these new geographies. Restraints High Capital Intensity Die attach systems — especially those built for hybrid bonding or silver sintering — can cost millions per unit. For smaller OSATs or R&D fabs , this upfront cost remains a major hurdle, even when ROI is proven long-term. Skilled Labor Gap Advanced bonding systems require trained operators, process engineers, and service technicians. In many regions outside Asia, this skill base is still shallow — slowing down adoption and undercutting machine utilization rates. To be honest, in some cases the machine is ready — but the ecosystem isn’t. 7.1. Report Coverage Table Report Attribute Details Forecast Period 2024 – 2030 Market Size Value in 2024 USD 1.2 Billion Revenue Forecast in 2030 USD 1.8 Billion Overall Growth Rate CAGR of 6.8% (2024 – 2030) Base Year for Estimation 2024 Historical Data 2019 – 2023 Unit USD Million, CAGR (2024 – 2030) Segmentation By Technology Type, Application, Bonding Material, End User, Geography By Technology Type Flip Chip Bonder, Die Bonder (Epoxy/Solder), Eutectic Die Bonder, Hybrid Bonding Equipment By Application Consumer Electronics, Automotive Electronics, Industrial Equipment, Telecom & Data Centers, Healthcare & Medical Devices By Bonding Material Epoxy Adhesives, Solder Paste/Preform, Silver Sintering Paste By End User IDMs, OSATs, R&D Labs & Integrators By Region North America, Europe, Asia-Pacific, Latin America, Middle East & Africa Country Scope U.S., Germany, China, Taiwan, Japan, South Korea, India, Brazil, UAE Market Drivers - Demand for 3D packaging and chiplets - EV adoption boosting power device packaging - Regional semiconductor policy investments Customization Option Available upon request Frequently Asked Question About This Report Q1: How big is the die attach equipment market? A1: The global die attach equipment market is valued at USD 1.2 billion in 2024. Q2: What is the CAGR for the die attach equipment market during the forecast period? A2: The market is growing at a CAGR of 6.8% between 2024 and 2030. Q3: Who are the major players in the die attach equipment market? A3: Key players include ASMPT, Kulicke & Soffa, BESI, Palomar Technologies, Shinkawa, and Toray Engineering. Q4: Which region dominates the die attach equipment market? A4: Asia Pacific leads due to the concentration of OSAT facilities and packaging R&D hubs. Q5: What’s driving growth in the die attach equipment market? A5: Growth is fueled by advanced packaging needs, power device expansion in EVs, and semiconductor localization initiatives across major economies. Executive Summary Market Overview Key Insights by Technology Type, Application, End User, and Region Strategic Opportunities Snapshot (2024–2030) Market Attractiveness Index by Segment Analyst Commentary Market Share Analysis Market Share by Technology Type (2024 vs. 2030) Market Share by Application and Bonding Material Leading Players by Revenue and Installed Base Market Share by End User (IDMs vs. OSATs) Benchmarking: Top Vendors by Regional Presence Investment Opportunities High-Growth Areas by Application Technology Convergence Zones (AI + Packaging) Country-Level Investment Activity M&A and Strategic Partnership Highlights Market Introduction Definition and Scope of the Study Semiconductor Packaging Landscape Overview Role of Die Attach Equipment in Advanced Packaging Key Assumptions and Forecast Methodology Research Methodology Primary and Secondary Data Sources Market Sizing Approach Forecast Assumptions and Limitations Data Triangulation and Validation Market Dynamics Growth Drivers Rise of Advanced Packaging (2.5D/3D, Chiplets ) Electrification and Power Device Packaging Semiconductor Sovereignty and Regional Policies Restraints Equipment Cost and Operator Skill Gaps Market Opportunities Silver Sintering Expansion Flexible and Wearable Electronics Packaging Risk Factors and Market Entry Challenges Global Die Attach Equipment Market Analysis (2024–2030) By Technology Type Flip Chip Bonder Die Bonder (Epoxy/Solder) Eutectic Die Bonder Hybrid Bonding Equipment By Application Consumer Electronics Automotive Electronics Industrial Equipment Telecom & Data Centers Healthcare & Medical Devices By Bonding Material Epoxy Adhesives Solder Paste/Preform Silver Sintering Paste By End User Integrated Device Manufacturers (IDMs) OSATs R&D Labs & Integrators Regional Market Analysis North America U.S., Canada, Mexico Key Projects: CHIPS Act Investments, Pilot Fab Lines Europe Germany, Netherlands, France, Italy, UK Focus: Automotive and Industrial Semiconductor Packaging Asia-Pacific China, Taiwan, South Korea, Japan, India Dominant OSAT Ecosystem and Advanced Packaging Adoption Latin America Brazil, Argentina, Rest of LATAM Market Entry via Specialty Packaging and Government Incentives Middle East & Africa UAE, Saudi Arabia, South Africa Investment in Digital Infrastructure and Tech Parks Competitive Intelligence Company Profiles: ASMPT Kulicke & Soffa BESI Palomar Technologies Shinkawa Toray Engineering Strategy Analysis: Precision, Modularity, and Ecosystem Alignment Innovation Benchmarking: Bonding Techniques, AI Integration, Remote Diagnostics Appendix Abbreviations Used Terminologies Explained References and Data Sources Customization Options List of Tables Market Size by Technology Type, Application, End User, and Region (2024–2030) Vendor Footprint by Region and Application Segment Regional Demand Forecast by Bonding Material List of Figures Market Dynamics: Drivers, Restraints, and Opportunities Global Value Chain for Die Attach Equipment Regional Market Snapshot (2024 vs. 2030) Comparative Analysis of Bonding Technologies Competitive Landscape by Installed Capacity