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Aehr Receives Follow-On Order for Fully Automated Wafer-Level Burn-In Systems Powering AI Optical I/O and Data Center Interconnects

(Positive)
Tags
AI

Aehr Test Systems (NASDAQ:AEHR) received a follow-on purchase order from its lead silicon photonics customer for wafer-level test and burn-in equipment used in data center optical interconnects and AI optical I/O.

The order covers one new ultra-high-power FOX-XP system and an upgrade to an existing FOX-XP, each supporting up to nine 300mm wafers in parallel at 3,500 watts per wafer. Aehr expects shipment in the second half of calendar 2026.

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Positive

  • Follow-on purchase order for one new FOX-XP system and one FOX-XP upgrade
  • Systems support up to nine 300mm wafers in parallel at 3,500W per wafer
  • Shipment expected in the second half of 2026, showing near‑term production timeline

Negative

  • Purchase order value not disclosed, leaving revenue impact unclear
  • Shipments scheduled for H2 2026 could defer revenue recognition into the second half of the year

News Market Reaction – AEHR

-5.43%
37 alerts
-5.43% Session close to close
+12.9% Peak Tracked
-7.0% Trough Tracked
$1.43B Market Cap
0.8x Rel. Volume

In the Mar 3 session, AEHR declined 5.43%, reflecting a notable negative market reaction. Argus tracked a peak move of +12.9% during that session. Argus tracked a trough of -7.0% from its starting point during tracking. Our momentum scanner triggered 37 alerts that day, indicating elevated trading interest and price volatility.

Data tracked by StockTitan Argus on the day of publication.

Market Context

The stock moved -5.4% in the session following this news. A negative reaction despite an AI-focused ...
Analysis

The stock moved -5.4% in the session following this news. A negative reaction despite an AI-focused follow-on order would fit AEHR’s mixed record around AI announcements, which has included at least one notable downside move after seemingly positive news. If the stock had fallen sharply, that would contrast with an average prior AI-news move of about 15.84%, raising questions about valuation expectations, order visibility, or concern over execution and insider selling trends rather than the fundamental direction of AI demand.

Key Figures

Wafers per system: up to 9 x 300mm wafers Power per wafer: up to 3500 watts per wafer WaferPak contactors: up to 9 FOX WaferPak units +5 more
8 metrics
Wafers per system up to 9 x 300mm wafers FOX-XP wafer-level test and burn-in configuration
Power per wafer up to 3500 watts per wafer FOX-XP ultra-high-power burn-in capability
WaferPak contactors up to 9 FOX WaferPak units Supported per FOX-XP system
Optical transceiver speeds 800G and 1.6T Targeted higher-speed optical connectivity in AI data centers
Shipment timing second half of calendar 2026 Expected shipment of new and upgraded FOX-XP systems
Wafer size 300mm Silicon photonics wafers under test and burn-in
Evaluation duration 3–6 months Prior WLBI application evaluation program for AI processors
AI chip market projection $60B to $600B (2023–2032) Long-term AI chip market growth from prior AI news

Previous AI Reports

5 past events · Latest: Feb 26 (Positive)
Same Type Pattern 5 events
Date Event Sentiment 24h Move Catalyst
Feb 26 AI FOX-XP order Positive -4.0% Received $14M FOX-XP wafer-level burn-in order from lead AI processor customer.
Feb 11 AI Sonoma order Positive +26.2% Initial production order for multiple Sonoma systems for next-gen AI ASIC processors.
Jan 08 AI Sonoma orders Positive +15.9% Over $5.5M in Sonoma system orders and launch of fully automated Sonoma platform.
Aug 26 AI WLBI evaluation Positive +5.3% WLBI evaluation order from leading AI processor supplier using FOX-XP systems.
Aug 25 AI capacity expansion Positive +35.9% Follow-on orders for six Sonoma systems from major hyperscaler to expand AI capacity.

24h Move is the share-price change in the day after each event; other market factors may also have contributed.

Pattern Detected

AI-related orders and wins have often triggered strong upside moves for AEHR, though one recent AI order saw a negative next-day reaction, showing that positive AI news does not always produce gains.

Recent Company History

Over the past several months, AEHR has repeatedly highlighted AI-driven demand for its FOX and Sonoma platforms. AI-tagged news on Jan 8, 2026, Feb 11, 2026, and Feb 26, 2026 detailed multi-million dollar orders for ultra-high-power burn-in systems and wafer-level solutions, with mixed but generally positive price reactions. Earlier, in Aug 2025, the company reported evaluation and capacity-expansion orders from leading AI and hyperscale customers. Today’s silicon photonics follow-on order fits this pattern of deepening AI infrastructure engagements.

Key Terms

wafer-level burn-in, silicon photonics, optical i/o, secs/gem automation, +2 more
6 terms
wafer-level burn-in technical
"provider of test and burn-in solutions for semiconductor devices used in artificial"
Wafer-level burn-in is a manufacturing stress test where semiconductor chips are powered and heated while still part of the full wafer to force early-life failures to appear before the chips are cut and packaged. For investors, it matters because performing this test improves product reliability and reduces later recalls or warranty costs, but it also raises manufacturing time and expense; think of it as shaking a batch of products to find weak ones before they reach customers.
silicon photonics technical
"received a follow-on purchase order from its lead silicon photonics customer for"
Silicon photonics is the technology that uses tiny structures etched into silicon chips to generate, control and detect light for moving data and sensing, essentially putting optical fiber functions onto a computer chip. For investors, it matters because it can dramatically increase data speed and energy efficiency in data centers, telecom networks and advanced sensors, potentially lowering costs and enabling new products much like replacing many metal wires with faster, low-power optical highways.
optical i/o technical
"optical interconnects and emerging optical I/O architectures for AI processors."
Optical I/O is the use of light instead of electrical signals to send and receive data between chips, circuit boards, or computers. It matters to investors because it can dramatically increase data speed and reduce power use—like switching from crowded city roads to high-speed rail—helping companies scale networks, cut operating costs in data centers, and enable new high-performance products that can drive revenue and competitive advantage.
secs/gem automation technical
"new ultra-high-power FOX-XP™ wafer-level test and burn-in system with full 300mm SECS/GEM automation"
SECS/GEM automation is a standard communication framework that lets semiconductor manufacturing machines and factory control software speak the same language to share status, report events, and coordinate tasks. For investors, it matters because this interoperability improves production speed, uptime, and quality while making equipment upgrades and remote monitoring easier—outcomes that can raise output, lower costs and support more predictable revenue and margins like a common digital platform streamlines teamwork.
co-packaged optics technical
"linear-drive optics (LPO), packaged optics, and co-packaged optics (CPO) architectures."
Co-packaged optics are optical components—lasers and fiber interfaces—physically packaged together with a network switch’s main processing chip so light-based data links sit much closer to the chip instead of traveling over long electrical traces. For investors, this matters because it can dramatically cut power use, boost data speed and density, and lower system costs in large data centers and telecom equipment, much like moving a power outlet next to a heavy appliance to avoid long, inefficient extension cords.
linear-drive optics technical
"including higher-speed optical transceivers (800G and 1.6T), linear-drive optics (LPO)"
Linear-drive optics are optical systems where lenses, mirrors, or other light-guiding components are moved by straight-line actuators (linear drives) to focus, steer, or change the path of light with high precision. For investors, this matters because the accuracy, speed, and reliability of those movements determine product quality, manufacturing yield, and the competitiveness of devices used in things like cameras, lasers, and semiconductor equipment—think of it as the rail and motor that let an optical element slide exactly where it needs to be.

AI-generated analysis. How Rhea-AI works. Not financial advice.

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FREMONT, CA / ACCESS Newswire / March 3, 2026 / Aehr Test Systems (NASDAQ:AEHR), a leading provider of test and burn-in solutions for semiconductor devices used in artificial intelligence (AI), data center, automotive, and industrial applications, today announced it has received a follow-on purchase order from its lead silicon photonics customer for production wafer-level test and burn-in of silicon photonics integrated circuits used in data center optical interconnects and emerging optical I/O architectures for AI processors.

The order reflects expanding production volumes as demand accelerates for optical connectivity solutions powering next-generation AI training and inference infrastructure.

The order includes:

  • One new ultra-high-power FOX-XP™ wafer-level test and burn-in system with full 300mm SECS/GEM automation, and

  • An upgrade of an existing FOX-XP system to the new ultra-high power, fully automated configuration

Each system is configured to test up to nine 300mm wafers in parallel at up to 3500 watts per wafer and supports up to nine FOX WaferPak™ proprietary full-wafer contactors. The systems also include Aehr's fully integrated FOX WaferPak AutoAligner™ for hands-free, high-volume production.

Aehr expects to ship the systems in the second half of calendar 2026.

Silicon Photonics and Optical I/O Demand Accelerates With AI Data Center Expansion

Silicon photonics is rapidly becoming a critical enabling technology in next-generation AI data centers, where performance and energy efficiency are increasingly limited by electrical I/O constraints. Industry analysts and hyperscale operators continue to highlight the rapid expansion of optical connectivity within AI clusters, including higher-speed optical transceivers (800G and 1.6T), linear-drive optics (LPO), packaged optics, and co-packaged optics (CPO) architectures. Recent industry reports and hyperscaler announcements point to multi-year growth in fiber-optic infrastructure and silicon photonics deployment tied directly to AI data center buildouts.

FOX-XP: High-Power Wafer-Level Burn-In for Silicon Photonics ICs

Aehr's FOX platform is designed to enable accelerated burn-in, reliability qualification, and production screening at the wafer level, significantly reducing cost and enabling earlier detection of infant mortality and latent reliability issues - particularly important for silicon photonics ICs that will be deployed in high-volume data center environments and high uptime AI infrastructure.

Aehr believes it is the first company to successfully demonstrate and ship a multi-wafer burn-in solution for silicon photonics transceivers, enabling earlier reliability screening and significant cost savings compared with traditional package-part testing. It is now seeing increased volumes from its lead customer and other customers, which is driving new production capacity requirements.

CEO Commentary

"This follow-on order further validates the accelerating adoption of the FOX wafer-level burn-in (WLBI) platform for silicon photonics integrated circuits used in data center optical connectivity and emerging optical I/O architectures for AI processors," said Gayn Erickson, President and CEO of Aehr Test Systems. "Our FOX-XP systems deliver industry-leading power-per-wafer capability, enabling production screening of these high-power, high-current devices at scale.

"With expanding AI infrastructure deployments and our recent manufacturing capacity enhancements, we believe we are well positioned to support significant growth both in our WLBI and packaged-part burn-in systems as customers ramp production."

About Aehr Test Systems

Headquartered in Fremont, California, Aehr Test Systems is a leading provider of test solutions for testing, burning-in, and stabilizing semiconductor devices in wafer level, singulated die, and packaged part form, and has installed thousands of systems worldwide. Increasing quality, reliability, safety, and security needs of semiconductors used across multiple applications, including electric vehicles, electric vehicle charging infrastructure, solar and wind power, computing, advanced artificial intelligence (AI) processors, data and telecommunications infrastructure, and solid-state memory and storage, are driving additional test requirements, incremental capacity needs, and new opportunities for Aehr's products and solutions. Aehr has developed and introduced several innovative products including the FOX-PTM families of test and burn-in systems and FOX WaferPakTM Aligner, FOX WaferPak Contactor, FOX DiePak® Carrier and FOX DiePak Loader. The FOX-XP and FOX-NP systems are full-wafer contact and singulated die/module test and burn-in systems that can test, burn-in, and stabilize a wide range of devices such as leading-edge silicon carbide-based and other power semiconductors, 2D and 3D sensors used in mobile phones, tablets, and other computing devices, memory semiconductors, processors, microcontrollers, systems-on-a-chip, and photonics and integrated optical devices. The FOX-CP system is a low-cost single-wafer compact test solution for logic, memory and photonic devices and the newest addition to the FOX-P product family. The FOX WaferPak Contactor contains a unique full-wafer contactor capable of testing wafers up to 300mm that enables IC manufacturers to perform test, burn-in, and stabilization of full wafers on the FOX-P systems. The FOX DiePak Carrier allows testing, burning in, and stabilization of singulated bare die and modules up to 1024 devices in parallel per DiePak on the FOX-NP and FOX-XP systems up to nine DiePaks at a time. Acquired through its acquisition of Incal Technology, Inc., Aehr's new line of high-power packaged part reliability/burn-in test solutions for AI semiconductor manufacturers, including its ultra-high-power Sonoma family of test solutions for AI accelerators, GPUs, and high-performance computing (HPC) processors, position Aehr within the rapidly growing AI market as a turnkey provider of reliability and testing that span from engineering to high volume production. For more information, please visit Aehr Test Systems' website at www.aehr.com.

Safe Harbor Statement

This press release contains certain forward-looking statements within the meaning of Section 27A of the Securities Act of 1933 and Section 21E of the Securities Exchange Act of 1934. Forward-looking statements generally relate to future events or Aehr's future financial or operating performance. In some cases, you can identify forward-looking statements because they contain words such as "may," "will," "should," "expects," "plans," "anticipates," "going to," "could," "intends," "target," "projects," "contemplates," "believes," "estimates," "predicts," "potential," or "continue," or the negative of these words or other similar terms or expressions that concern Aehr's expectations, strategy, priorities, plans, or intentions. Forward-looking statements in this press release include, but are not limited to, future requirements and orders of Aehr's new and existing customers; Aehr's ability to receive orders and generate revenue in the future, as well as Aehr's beliefs regarding the factors impacting the foregoing, including the growth of the markets referred to herein; Aehr's ability to integrate Incal efficiently; and the timing and extent to which the acquisition is accretive. The forward-looking statements contained in this press release are also subject to other risks and uncertainties, including those more fully described in Aehr's recent Form 10-K, 10-Q and other reports filed from time to time with the Securities and Exchange Commission. Aehr disclaims any obligation to update information contained in any forward-looking statement to reflect events or circumstances occurring after the date of this press release.

CONTACT:

Aehr Test Systems
Vernon Rogers
EVP of Sales & Marketing
vrogers@aehr.com

PondelWilkinson, Inc.
Todd Kehrli or Jim Byers
Analyst/Investor Contact
tkehrli@pondel.com
jbyers@pondel.com

SOURCE: Aehr Test Systems



View the original press release on ACCESS Newswire

FAQ

What did Aehr (AEHR) announce on March 3, 2026 about silicon photonics test systems?

Aehr announced a follow-on purchase order for wafer-level burn-in equipment, including one new FOX-XP and an upgrade. According to the company, the systems test up to nine 300mm wafers in parallel at 3,500 watts per wafer and will ship in H2 2026.

How many wafers can the new FOX-XP systems ordered by AEHR test in parallel?

The ordered FOX-XP systems are configured to test up to nine 300mm wafers in parallel. According to the company, each wafer can be powered up to 3,500 watts and supports nine FOX WaferPak contactors for high-volume production.

When does Aehr expect to ship the FOX-XP systems from the March 3, 2026 order?

Aehr expects shipment in the second half of calendar 2026. According to the company, this timing reflects production capacity planning tied to accelerating silicon photonics demand in AI data centers.

What does the AEHR follow-on order mean for the company's position in silicon photonics burn-in?

The follow-on order signals growing customer adoption of Aehr's FOX wafer-level burn-in platform. According to the company, it validates multi-wafer WLBI use for silicon photonics and supports scaling to high-volume data center deployments.

Does the March 3, 2026 announcement disclose the dollar value of the AEHR purchase order?

The announcement does not disclose a dollar amount for the follow-on purchase order. According to the company, only the system types, capabilities, and expected H2 2026 shipment timing were provided.