BE Semiconductor Industries Posts Record Hybrid Bonding Orders as Memory Customers Accelerate HBM Adoption
Q1 2026 Earnings Call, April 23, 2026
BE Semiconductor Industries delivered a watershed quarter for hybrid bonding adoption, with unit orders for its advanced packaging systems more than doubling sequentially to exceed the previous quarterly peak from Q2 2024 in both units and dollar value. The acceleration reflects a fundamental shift in the advanced packaging landscape as all three major memory manufacturers now possess Besi's hybrid bonders for HBM qualification and production moves toward mainstream adoption in 2027.
Revenue for the first quarter reached EUR 184.9 million, up 28.3 percent year over year, while orders of EUR 269.7 million more than doubled versus the prior year period and increased 7.7 percent sequentially. Net income rose 63.8 percent year over year to reach a 27.9 percent net margin, up from 21.9 percent in Q1 2025, driven by enhanced revenue growth and operating leverage.
All Three Memory Giants Now Engaged in Hybrid HBM Development
The most significant development of the quarter was Besi's expansion into a third memory customer, bringing all three major memory manufacturers into its hybrid bonding ecosystem for HBM applications. CEO Richard Blickman disclosed that Besi shipped two evaluation tools to a second memory customer specifically for HBM applications during the quarter, while also receiving repeat orders from its first memory customer.
Blickman clarified the customer timeline: "The first customer aiming towards the mid of this year, June, July, and the second one, a bit following behind, which could be end of Q3, Q4. So that will determine the adoption of volume for '27." He added that the third customer "is ready to go" and that all three are "evaluating along the same parameters for one specific end customer, the whole world knows." That end customer has invited all three memory manufacturers to have hybrid bonded stacks available by the end of 2026 for use in end market applications in 2027.
The qualification progress appears on track. When pressed on yield requirements, Blickman stated: "What we know as a rule, if a process is not well up into the 99.9 percent, then it becomes a very difficult long-term perspective. So yields in interconnect are at those levels. The confidence is certainly that we should reach those levels. Otherwise, it would make no sense to do these evaluations and qualifications."
Logic Customer Accelerates Capacity Build Beyond Initial Plans
Hybrid bonding momentum at Besi's lead logic customer also exceeded expectations during the quarter. Blickman explained that orders scheduled for installation in the first phase at the customer's AP7 facility "has been pulled forward somewhat from Q2 to Q1. In addition, the program has been enlarged for two reasons. One, for the overall time line to fill in the anticipated 100 bonders. That number we are told may be significantly higher, plus orders placed for co-packaged optics."
The company now sees broader adoption across logic customers beyond its Taiwan-based anchor account. Blickman noted that AMD continues to adopt hybrid bonding for several product families, while Apple's M5 processor represents a positive development. More significantly, he stated: "We've heard or we've been told road maps from another very big customer in the data center modules that we can expect more hybrid bonding adoption going forward." The total customer count for hybrid bonding reached 20, up from 18 in the prior quarter.
Production Capacity Expanded to 250 Systems Annually
To address the accelerating demand, Besi has expanded its theoretical hybrid bonding production capacity from 180 systems per year to 250 systems annually. Blickman explained: "With the increase in floor space and adjusted to a model required by several customers, we can now expand that to 250 per year. We can satisfy any model presented to us by the big 5 using the current expanded capacity." The company maintains a standard six-month lead time for its 100-nanometer hybrid bonders.
The infrastructure buildout extends beyond manufacturing floor space. Besi is implementing a front-end style support model for hybrid bonding customers that requires significantly more intensive service capabilities. "Within 4 hours, a defined list of spare parts for hybrid bonders, close to 900, need to be available. And that's all in place," Blickman stated. The company is also developing additional Vietnamese production capacity for mainstream assembly applications to free up incremental capacity in Malaysia for wafer-level assembly production.
Memory Versus Logic: The Integrated Line Question
A critical distinction emerged regarding the deployment model for hybrid bonding systems between logic and memory applications. While Besi's Taiwan-based logic customer continues to favor standalone tool configurations for flexibility during the initial ramp phase, the trajectory for HBM appears different. When asked directly whether HBM hybrid bonding would utilize integrated or standalone configurations, Blickman responded: "Integrated because HBM is dedicated high-volume production. And then it's more likely to do that automated than standalone."
He elaborated on the economics: "We sell bonders and AMAT sells Kinex automated lines. And they both have a sales value. And the extra which you have is the handshake between the bonder and the Kinex tool." Importantly, he clarified that the revenue impact to Besi remains unchanged: "For us, back to the dollars, it doesn't make the difference for the bonder. The bonder has a certain value, cost of ownership value, and that is the same standalone compared to integrated in a line."
Photonics and Co-Packaged Optics Momentum Builds
Beyond AI processors and HBM, Besi reported significant expansion in the photonics market segment that began in mid-2025. Multiple customers are building capacity for pluggable devices, with next-generation pluggables requiring more bonding steps. Separately, the company has delivered hybrid bonders for co-packaged optics applications, with orders for CPO capacity included in the enlarged program at its lead Taiwan customer.
The company also noted growing momentum for 310mm by 310mm square panel applications across multiple use cases. "We already received orders for certain applications. So our bonders can handle the 310 by 310," Blickman stated, adding that the format saves waste and that larger die sizes with more modular 2.5D and 3D designs will increasingly use panels as carriers.
Service Business Poised for Structural Margin Expansion
The shift toward higher hybrid bonding mix carries significant implications for Besi's service business model and margins. Historically stable at 15 to 16 percent of group revenues, service revenues should expand structurally as hybrid bonding's installed base grows. Blickman explained: "The level of support we have to provide to hybrid bonding front-end type of environment is significantly higher than in the back-end environment. So that 15 percent may very well move up towards the 18 percent, 19 percent, 20 percent."
He added that long-term service contracts, standard in front-end equipment where service typically represents 20 to 25 percent of revenues, are becoming more prevalent. When asked about the margin impact, Blickman was direct: "A tailwind, certainly a tailwind. So support is certainly, if you organize it right, of course, but that's with everything, is potentially a higher-margin business."
China Dynamics: 2.5D Now, 3D Hybrid Later
Besi reported robust orders from China during the quarter, driven by 2.5D CoWoS-like capacity expansion, photonics pluggables, and recovery in high-end smartphone modules. However, Blickman noted a clear geographic shift underway: "More and more future capacities are built outside China. So you see more in Malaysia, Philippines, Thailand and also coming up more strongly Vietnam." India is also emerging with five major customers setting up production for mid to lower-end devices and power applications.
On potential Chinese hybrid bonding adoption, Blickman indicated development work is underway but still in early stages. "There could be a philosophy to use hybrid bonding in 3D stacking to lengthen the node size life, so to increase the performance of those devices with a 3D hybrid bonded structure. We are, of course, in development of those kinds of modules, but that is still in very early stage." He noted that Chinese customers are "very aggressive in a positive sense to study carefully the benefits of a hybrid process," potentially because they cannot access next-generation smaller geometries and see hybrid bonding as an alternative performance enhancement path.
Guidance Points to Accelerating Momentum
For the second quarter, Besi expects revenue growth of 30 to 40 percent sequentially with gross margins expanding to 64 to 66 percent from 63.5 percent in Q1. Operating expenses are anticipated to be flat to up 10 percent despite the substantial revenue increase, demonstrating the operating leverage in the business model. The company projects first-half 2026 revenue will increase 49 percent versus the first half of 2025 at the midpoint of Q2 guidance, with substantial improvement in operating and net income.
Blickman characterized the current environment as continuing the positive momentum: "We are in an up cycle and up market. So as long as there's no signs of saturation in the end market, you can expect that to continue." He noted that Besi has demonstrated the ability to ramp capacity 50 percent quarter over quarter in past up cycles and is executing a similar ramp currently. The company's backlog, estimated at approximately EUR 400 million by quarter end, appears concentrated in 2.5D and hybrid bonding applications, while mobile and automotive are also now recovering to provide additional order diversity.
The 4-to-1 capacity ratio between HBM and logic hybrid bonding that Besi has previously articulated remains intact. "If you compare a capacity of 50 bonders for logic, and you simply look at all these beautiful websites and materials about building these 2.5D modules, you can easily see a processor surrounded by 3 or 4 memory stacks. The other ratio when you have 16 dies in a stack, you need to do at 16x as opposed to 1 logic device. So you need much more capacity for HBM than you need for logic," Blickman explained, noting the rule of thumb remains supported by customer demonstrations of capabilities.
BE Semiconductor Industries N.V. Deep Dive
Business Model: Escaping the Commoditized Back-End
The traditional semiconductor manufacturing process has long been bifurcated into front-end wafer fabrication and back-end assembly, packaging, and testing. Historically, the back-end was viewed as a highly commoditized, low-margin segment dominated by labor-intensive processes and fierce price competition. BE Semiconductor Industries recognized the structural limitations of this paradigm early and orchestrated a strategic pivot that redefined its business model. Operating within the Semiconductor Assembly and Test Equipment market, the company shifted its focus entirely toward the bleeding edge of advanced packaging. The operational model is highly flexible and asset-light. Mainstream, lower-value components are manufactured via an agile supply chain in lower-cost Asian facilities, while the company retains absolute control over high-value engineering, critical software development, and proprietary assembly architecture in Europe.
Revenue is primarily generated through the sale of highly specialized capital equipment, specifically die attach, packaging, and plating systems, augmented by a lucrative and recurring stream of service contracts, software upgrades, and spare parts. By systematically exiting commoditized product lines and relentlessly reinvesting in advanced placement technologies, the company has achieved financial metrics that mirror front-end lithography monopolies rather than traditional back-end suppliers. This technological differentiation allows the company to realize gross margins in the 63 to 65 percent range and operating margins consistently hovering around 30 percent, demonstrating severe pricing power and operating leverage during cyclical upswings.
Customers, Competitors, and Ecosystem Dynamics
The customer base is highly concentrated among the apex predators of the semiconductor ecosystem, including the world's most advanced foundries, integrated device manufacturers, and top-tier outsourced semiconductor assembly and test providers. Key clients include Taiwan Semiconductor Manufacturing Company, Intel, Samsung, and Micron. These entities are currently locked in an arms race to build the hardware infrastructure required for generative artificial intelligence, a dynamic that has profoundly reshaped the company's order book. By early 2026, orders tied specifically to artificial intelligence computing and photonics applications represented approximately 50 percent of total bookings, severely reducing the company's historical reliance on volatile consumer electronics and automotive end-markets.
On the competitive front, the traditional rivals are established Asian semiconductor equipment manufacturers such as ASM Pacific Technology and Kulicke & Soffa. While ASM Pacific Technology remains a well-capitalized and formidable competitor that is actively investing to build its own advanced packaging capabilities, it currently trails in sub-micron placement accuracy and hybrid bonding throughput. However, the more profound ecosystem shift is the blurring demarcation line between front-end and back-end manufacturing. As advanced packaging becomes the primary vector for chip performance gains, front-end semiconductor equipment giants like Applied Materials and Lam Research are aggressively encroaching on the assembly space. This convergence is fundamentally altering ecosystem dynamics, transforming former distant peers into direct collaborators and potential acquirers.
The Advanced Packaging Moat and Market Share Leadership
The company's competitive advantage is rooted in a decades-long, concentrated allocation of research and development capital toward sub-micron placement accuracy. This singular focus has erected a monopolistic moat in the most critical niches of semiconductor manufacturing. While the company commands a highly respectable 40 percent share of the broader global die attach market, its dominance is nearly absolute at the technological frontier, holding an estimated 75 percent market share in the advanced die attach segment.
The undisputed crown jewel of the portfolio is hybrid bonding technology. Unlike traditional thermo-compression which utilizes micro-bumps and soldering to connect chips, hybrid bonding fuses chips together via direct copper-to-copper connections. This breakthrough enables exponentially faster data transfer rates, vastly higher interconnect densities, and dramatically lower power consumption, all of which are absolute prerequisites for next-generation artificial intelligence accelerators. In the hybrid bonding equipment space, BE Semiconductor Industries is the uncontested market leader. This leadership position was permanently fortified through a strategic partnership with Applied Materials, which culminated in the joint development of the Kinex platform, the industry's first fully integrated die-to-wafer hybrid bonding system. By establishing the foundational manufacturing standards for multi-die chiplets alongside a front-end titan, the company has secured a highly defensible market position characterized by insurmountable switching costs.
Opportunities and Threats in the Chiplet Era
The deceleration of traditional Moore's Law scaling serves as the primary structural tailwind for the company. With the physical limitations of transistor shrinkage becoming economically prohibitive, the global semiconductor industry has decisively pivoted toward 3D chiplet architectures and high-bandwidth memory stacking to drive performance. This architectural paradigm shift relies entirely on advanced packaging, positioning the broader semiconductor assembly equipment market for a projected 74 percent growth trajectory between 2025 and 2030. As the premier supplier of the tools required to physically stack these advanced components, the company is uniquely positioned to capture a disproportionate share of this capital expenditure cycle.
However, navigating this transition presents complex operational risks. A tangible near-term threat has materialized regarding the adoption timeline for hybrid bonding in next-generation high-bandwidth memory. Industry standard-setting bodies are currently locked in debates over package thickness parameters. If major memory producers such as SK Hynix and Samsung are permitted to utilize thicker package standards, they may delay the capital-intensive transition to hybrid bonding, opting instead to squeeze further utility out of cheaper, legacy thermo-compression bonding techniques. Furthermore, despite its exposure to secular artificial intelligence trends, the company remains tethered to the inherent cyclicality of the semiconductor equipment sector. Any macroeconomic shocks that force major foundries to push out their capital expenditure timelines will translate into immediate and severe order book volatility.
New Growth Engines and Technological Disruptors
To insulate the business from potential delays in hybrid bonding adoption and to further widen its technological lead, the company is aggressively rolling out a new suite of advanced platforms. In the first quarter of 2026, the company launched a highly anticipated next-generation flip-chip tool capable of 1-micron placement accuracy. This system is designed to aggressively capture market share in high-end mobile and logic applications where hybrid bonding is technically unnecessary but extreme precision is still required. Recognizing that hybrid bonding is not a panacea for all advanced packaging needs, the company has also introduced the TC Next platform. This advanced thermo-compression system is engineered to dominate high-throughput, ultra-fine pitch chiplet packaging, ensuring the company captures revenue regardless of which specific bonding pathway a customer chooses for a given chip design.
On the disruptor front, the structural margins achievable in advanced packaging have inevitably attracted ambitious new entrants. A cohort of Korean equipment manufacturers, including Hanmi Semiconductor, Hanwha Semitech, and SEMES, are actively deploying capital to develop competing hybrid bonding and advanced packaging systems. While these regional players are currently generations behind in throughput efficiency and critical sub-micron alignment accuracy, their geographic proximity and deep geopolitical ties to domestic memory giants make them highly credible long-term threats. If Korean memory manufacturers prioritize localized supply chains for national security or cost reasons, these new entrants could steadily erode market share in the lucrative high-bandwidth memory packaging segment over the coming decade.
Management Track Record and The Consolidation End-Game
Chief Executive Officer Richard Blickman, who co-founded the enterprise in 1995, stands as the architect of one of the most clinically effective value-creation stories in the European industrial technology sector. Over a thirty-year tenure, Blickman engineered the company's transformation from a regional back-end supplier into a global chokepoint for artificial intelligence hardware, delivering cumulative shareholder returns exceeding 1,500 percent over the past decade. His capital allocation framework has been highly disciplined, defined by prescient early acquisitions to consolidate intellectual property, aggressive and counter-cyclical research and development spending during industry downturns, and a rigorously shareholder-friendly distribution policy that maintains a 95 percent dividend payout ratio alongside aggressive share repurchases.
Yet, Blickman's remarkable longevity has introduced a profound structural vulnerability into the corporate narrative: the glaring absence of a formalized succession plan. This dynamic, coupled with the strategic imperative of owning advanced packaging capabilities, has transformed the company into the industry's most logical acquisition target. In April 2025, Applied Materials acquired a 9 percent strategic stake, a maneuver widely interpreted by institutional investors as a prelude to consolidation. By March 2026, credible reports emerged that both Applied Materials and Lam Research were exploring multi-billion-euro takeover bids. The strategic rationale is overwhelming, as acquiring this specific technological portfolio would grant a front-end equipment giant complete, vertically integrated control over the manufacturing supply chain for advanced artificial intelligence infrastructure.
The Scorecard
BE Semiconductor Industries represents a rare breed of European technology compounder that has successfully navigated the brutal cyclicality of the hardware market to emerge as an indispensable tollkeeper for the artificial intelligence era. By ruthlessly transitioning its business model away from commoditized back-end assembly and establishing a near-monopoly in advanced die attach and hybrid bonding, the company has secured structural margins that rival the industry's front-end titans. The transition to 3D chiplet architectures and high-bandwidth memory stacking ensures a multi-year secular growth runway, deeply embedding the company's proprietary equipment within the capital expenditure roadmaps of the world's most vital foundries and integrated device manufacturers.
While near-term risks exist regarding the exact adoption timing of hybrid bonding for memory applications and the emergence of state-backed Asian challengers, the technological moat remains formidable, fortified by massive research budgets and deeply integrated co-development partnerships. The management team's flawless execution over three decades has created immense shareholder value, though the current lack of a clear executive succession plan has naturally accelerated consolidation narratives. Ultimately, whether it continues to execute as an independent compounding machine or is acquired by a Silicon Valley giant looking to dominate advanced packaging, the fundamental reality remains that the next generation of high-performance computing cannot be manufactured without this specific suite of technologies.