Veeco Books $250M+ in InP Laser Tool Orders as AI Optical Interconnect Drives Compound Semiconductor Deposition Supercycle

By NineScrolls Team · 2026-05-08 · 6 min read · Industry

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The $250 Million Order Surge

On May 5, 2026, Veeco Instruments Inc. of Plainview, NY disclosed that multiple customers had placed more than $250 million in equipment orders for its Spector ion beam deposition, Lumina metal-organic chemical vapor deposition (MOCVD) and WaferEtch wet processing systems. The orders are tied to the manufacturing of indium phosphide (InP) lasers, with deliveries beginning in 2026 and significantly accelerating in 2027.

The disclosure landed alongside Veeco's Q1 2026 results — revenue of $158 million and full-year guidance reiterated at $740 million to $800 million — and pushed VECO shares up roughly 19% the next session as investors absorbed the multi-year visibility the order book implies.

According to Veeco, a substantial portion of the orders is for the Spector IBD platform, ordered by leading manufacturers of 800G and 1.6T optical transceivers for hyperscale data centers. Veeco said it expects to begin shipping against the orders in Q3 2026, with the most significant ramp starting in Q1 2027.

What Veeco Is Shipping: Spector IBD, Lumina MOCVD, WaferEtch

The order is split across three distinct process platforms, each owning a critical step in InP laser manufacturing.

The Spector ion beam deposition system is used to deposit ultra-dense, low-loss optical films — specifically the laser facet coatings that determine the reflectivity and high-power survivability of the laser cavity. Veeco describes the films as having precise control over thickness and reflectivity, characteristics that become essential at the optical power levels required by 800G and 1.6T transceivers.

The Lumina MOCVD platform, built on Veeco's TurboDisc reactor technology, handles the InP epitaxy itself — growing the multi-layer compound semiconductor stack that forms the active region of the laser. Veeco claims uniformity, low defectivity and productivity advantages over the installed base.

WaferEtch handles wet processing in the back end of the laser flow, which Veeco says was selected on device-to-device repeatability and throughput. Senior VP Adrian Devasahayam called it "Veeco's differentiated portfolio of ion beam, MOCVD and wet processing technologies" that lets customers scale InP laser production with high yield and reliability.

Aixtron's Optoelectronics MOCVD Mix Jumps from 10% to 52%

Veeco's order book is not an isolated event. On May 4, 2026, Germany's Aixtron SE — the other major MOCVD equipment maker — confirmed Q1 2026 results that show the same demand signal from a different angle.

Aixtron's Q1 2026 revenue fell 47% year-on-year to €59.4 million as power-electronics demand for SiC and GaN MOCVD tools stayed soft. But order intake hit €171.4 million, up 30% year-on-year, with optoelectronics systems alone making up almost 70% of that intake. MOCVD equipment sold for optoelectronics applications — telecoms/datacoms and 3D-sensing lasers — climbed from 10% of equipment revenue a year ago to 52% in Q1 2026. CEO Dr. Felix Grawert said laser-related demand "exceeded our expectations."

Aixtron's equipment order backlog reached €359.1 million at end-March 2026, up 17% year-on-year. The company raised its full-year 2026 guidance for revenue from €520m ± €30m to €560m ± €30m, lifted gross margin guidance to about 42%, and raised EBIT margin guidance to 17–20%. Aixtron has positioned its G10-AsP MOCVD platform as "the tool of record for the next generation of photonic components" used in chip-to-chip, rack-to-rack and datacenter-to-datacenter communications in the AI era.

Why It's Happening: 800G and 1.6T Optical in Hyperscale AI

The unifying driver behind both order books is the shift from copper to optical at higher data rates inside hyperscale AI infrastructure. As AI training and inference clusters scale, power and thermal constraints make copper interconnects untenable past certain reaches and rates, forcing the next-generation 800G and 1.6T optical transceivers into the rack.

Veeco cites market analyst LightCounting on the trajectory of optical interconnect sales, and notes that recent industry commentary has flagged InP laser manufacturing as a bottleneck — limited qualified capacity and complex process integration. That bottleneck is what Veeco's $250M+ order book and Aixtron's optoelectronics surge are now trying to clear.

Market Sizing: $700M SAM by 2030, InP a Stated Bottleneck

Veeco said its serviceable available market (SAM) in silicon photonics — specifically tied to InP laser manufacturing — is projected to be $700 million in 2030. That is the deposition-and-process tool slice of the InP laser fab equipment opportunity, not the laser device market itself.

The order pattern Veeco described is also notable for its concentration in compound semiconductor process technology — IBD, MOCVD and wet processing — rather than silicon-CMOS lithography or etch. Optical interconnect scaling is dragging compound semiconductor capacity along as a hard prerequisite, even when most of the AI capex narrative is centered on TSMC and the leading-edge logic foundries.

What This Means for Plasma Processing and Thin Film Deposition

The Veeco and Aixtron data points reframe what an "AI equipment supercycle" actually buys. Beyond the headline silicon foundry tools, hyperscale AI is now pulling in compound semiconductor deposition capacity at the order-of-magnitude scale Aixtron's mix shift implies.

For thin film deposition systems, the immediate read is on three platforms: ion beam deposition for laser facet and mirror coatings (Spector-class), MOCVD for InP and GaAs epitaxy (Lumina, G10-AsP and similar TurboDisc/showerhead reactor designs), and PECVD for passivation and waveguide layers in the silicon photonics integration step. All three are experiencing simultaneous demand pull from 800G/1.6T transceiver ramps.

For plasma processing, the relevant slice is dry etch and plasma-enhanced film steps used to define ridge waveguides, mesa structures and via stacks in InP and silicon photonics co-packaged optics. As facet-coating reflectivity tolerances tighten at higher optical powers, in-situ plasma cleaning and pre-deposition surface activation become more sensitive process steps — a niche where small differences in plasma source design translate directly into laser yield.

For the supply chain — plasma sources, RF generators, sputter targets, gas delivery, vacuum components and process monitoring — the InP laser surge layers a new demand cohort onto an already tight market. Compound semiconductor fabs use specialty III-V precursor delivery (TMIn, TMGa, AsH₃, PH₃) and corrosive-gas vacuum hardware that does not interchange one-for-one with silicon-line BOM. Suppliers that can serve both worlds — and qualify quickly into the new InP laser lines now being capacity-built — are the ones positioned to capture the 2027 ramp Veeco has now put on the calendar.

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