QTREX Awarded Government Grant to Advance the World's First Native RF Dielectric Material for Quantum Computing

Rhea-AI Summary

QTREX Quantum (Nasdaq: QTEX) received an approximately $1 million grant from the Israel Innovation Authority to develop a native RF dielectric material for superconducting quantum computing connectivity.

The program focuses on high-density, low-loss RF signal routing inside cryogenic environments, targeting connectivity bottlenecks as quantum processors scale.

Positive

• Approximately $1 million Israel Innovation Authority grant secured for materials R&D
• Funding focused on native RF dielectric layer within QTREX quantum connectivity architecture
• Targets high-density, low-loss RF routing for superconducting quantum systems
• Supports engagement in technical and commercial discussions with quantum hardware companies

Negative

• None.

News Market Reaction – QTEX

+13.48%

30 alerts

+13.48% Session close to close

+32.2% Peak Tracked

-14.5% Trough Tracked

$71.16M Market Cap

0.0x Rel. Volume

In the Jun 9 session, QTEX gained 13.48%, reflecting a significant positive market reaction. Argus tracked a peak move of +32.2% during that session. Argus tracked a trough of -14.5% from its starting point during tracking. Our momentum scanner triggered 30 alerts that day, indicating elevated trading interest and price volatility.

Data tracked by StockTitan Argus on the day of publication.

Market Context

The stock surged +13.5% in the session following this news. A strong positive reaction aligns with Q...

Analysis

The stock surged +13.5% in the session following this news. A strong positive reaction aligns with QTREX’s strategy of building a differentiated quantum connectivity stack, now supported by a government grant. The stock was trading at $1.41, far below its $3.85 52-week high, and below its $1.79 200-day MA, leaving room for repricing on credible execution. Investors may weigh this against recent volatility, including a 24.68% drop after a prior positive technology announcement.

Key Figures

Current price: $1.41 52-week high: $3.85 52-week low: $0.283 +5 more

8 metrics

Current price $1.41 Pre-news price on 2026-06-09

52-week high $3.85 52-week range high

52-week low $0.283 52-week range low

Market cap $67,413,449 Pre-news market capitalization

Today’s volume 30,748,379 shares Volume on 2026-06-09

20-day avg volume 113,326,734 shares Average daily volume over last 20 days

200-day MA $1.79 Long-term moving average level

Shares float 40,044,464 shares Free float from short-interest context

Historical Context

2 past events · Latest: Jun 02 (Positive)

Pattern 2 events

Date	Event	Sentiment	24h Move	Catalyst
Jun 02	Conference showcase	Positive	-24.7%	Planned presentation of AME-based monolithic connectivity components at Quantum.Tech World 2026.
Jun 01	Commercial order	Positive	+0.3%	Purchase order from a U.S.-based Fortune 500 multinational for an AME system.

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

Pattern Detected

Recent QTREX news has produced mixed reactions, including a sharp selloff on a positive technical showcase and a flat-to-slightly-positive response to a Fortune 500 purchase order.

Recent Company History

Over the last few weeks, QTREX has highlighted progress in commercial traction and technology positioning. On Jun 1, 2026, the company reported a purchase order from a U.S.-based Fortune 500 multinational for an AME system, noting this supports a growing commercial revenue base. On Jun 2, 2026, QTREX announced plans to showcase AME-based monolithic connectivity components at Quantum.Tech World 2026, yet the stock fell 24.68% over the next day. Today’s government grant further reinforces its focus on quantum connectivity infrastructure.

Key Terms

additively manufactured electronics, dielectric material, rf signal routing, superconducting quantum computing, +4 more

8 terms

additively manufactured electronics technical

"a company focused on advancing Additively Manufactured Electronics (“AME”) for quantum computing"

Additively manufactured electronics are electronic components and circuits created by layer-by-layer printing techniques instead of traditional machining or assembly. Think of building a cake where each layer can contain wiring, sensors or conductive traces so a finished part can combine structure and electronics in one piece. For investors, this can cut production time and part counts, enable custom or lightweight designs, and open new product opportunities or cost savings across manufacturing and supply chains.

dielectric material technical

"to support the development of a purpose-built dielectric material engineered for high-density"

A dielectric material is an electrical insulator that stores and separates electric charge when placed in an electric field—imagine the non‑conducting layer in a battery or capacitor that helps hold energy like a sponge holds water. It matters to investors because its properties determine the performance, size, efficiency and reliability of many electronic and electrical products; better dielectrics can lower costs, enable smaller devices and create competitive advantages across supply chains.

rf signal routing technical

"engineered for high-density, low-loss RF signal routing in scalable superconducting quantum"

RF signal routing directs radio-frequency energy between antennas, chips and system components so wireless signals reach the right place with minimal loss or interference; it involves physical paths, switches, filters and connectors that steer those signals. Investors should care because routing affects device performance, power use, size and manufacturing cost—like a traffic controller for radio waves, better routing yields faster, more reliable connections and can be a competitive advantage in telecom, defense and consumer wireless markets.

superconducting quantum computing technical

"one of the core scaling constraints in superconducting quantum computing: the growing need"

Superconducting quantum computing uses tiny circuits made from materials that carry electricity with no resistance at extremely low temperatures to create and control quantum bits, special units that can represent many possibilities at once instead of just 0 or 1. For investors, it matters because if these machines reach practical scale they could solve certain problems far faster than today’s computers—think finding a needle in a haystack almost instantly—so progress, manufacturing scale, and commercialization could create big opportunities and risks across hardware, software, and services.

cryogenic environments technical

"move more RF and microwave signals through cryogenic environments with lower loss"

Cryogenic environments are extremely cold conditions, typically far below freezing, used to preserve materials, run equipment, or test products that behave differently at very low temperatures. Like a deep freezer for specialized goods, they matter to investors because maintaining such cold conditions affects costs, safety, regulatory compliance, product quality, and the reliability of operations in industries from biotech to electronics.

impedance control technical

"signal loss, impedance control, density and thermal behavior are driven by how the dielectric"

Impedance control is a way machines and medical devices regulate how much they resist or yield when they touch something, adjusting their stiffness and responsiveness so interactions are smooth and predictable. For investors, it matters because strong impedance control improves patient safety, device reliability and user experience—similar to how good shock absorbers make a car ride safer and more comfortable—which can lower liability and boost adoption, revenue and regulatory approval prospects.

monolithic connectivity components technical

"showcasing components addressing cryogenic interconnect challenges in superconducting quantum systems."

Monolithic connectivity components are large, single-piece systems that handle network links, device connections, or data flows in one integrated unit rather than as smaller, replaceable parts. Think of them like a single all-in-one appliance versus a set of interchangeable tools: they can simplify deployment and work reliably out of the box, but may limit flexibility, make upgrades or fixes costlier, and increase vendor dependence—factors investors watch for long-term risk, capital needs, and growth scalability.

quantum connectivity architecture technical

"native layer within its quantum connectivity architecture, enabling the Company to engineer"

A quantum connectivity architecture is the overall design and set of rules used to link quantum devices and networks so they can share quantum information reliably and securely, much like the roads, traffic signals and handshakes that let cars travel and coordinate safely. For investors it matters because this architecture determines how fast, scalable and secure quantum services can become, shaping costs, potential markets and who can commercialize useful quantum technology first.

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Nes Ziona, June 09, 2026 (GLOBE NEWSWIRE) -- QTREX Quantum Ltd. (Nasdaq: QTEX) ("QTREX" or the "Company"), a company focused on advancing Additively Manufactured Electronics (“AME”) for quantum computing infrastructure, today announced that the Israel Innovation Authority (“IIA”) has awarded the Company an approximately $1 million grant to support the development of a purpose-built dielectric material engineered for high-density, low-loss RF signal routing in scalable superconducting quantum computing systems.

QTREX’s program targets one of the core scaling constraints in superconducting quantum computing: the growing need to move more RF and microwave signals through cryogenic environments with lower loss, higher density and fewer assembly points. QTREX is developing the material as a native layer within its quantum connectivity architecture, enabling the Company to engineer the dielectric, conductor and 3D geometry together rather than adapting off-the-shelf materials to quantum requirements. This matters because in superconducting quantum systems, signal loss, impedance control, density and thermal behavior are driven by how the dielectric, conductor and geometry work together as a single structure.

As superconducting quantum processors scale, connectivity becomes a system-level bottleneck across the industry. More qubits require more RF lines, tighter packaging, cleaner signal paths and lower thermal impact. This creates a clear need for purpose-built materials and monolithic connectivity components designed specifically for the physical demands of scalable quantum computing.

“Superconducting quantum computers cannot scale on conventional wiring architecture,” said Dagi Ben-Noon, Chief Executive Officer of QTREX. “QTREX’s existing materials and AME capabilities already go beyond conventional industry approaches by enabling the Company to engineer materials, conductive pathways and 3D geometry as one integrated platform. This grant strengthens a core materials layer inside our quantum connectivity architecture and expands a capability we believe the industry has been missing. As we enter upcoming technical and commercial discussions with quantum hardware companies, QTREX is bringing a clear message to the market: scalable quantum computing requires a new connectivity architecture, and we are building it from the materials level up.”

About QTREX Quantum
QTREX Quantum Ltd. (Nasdaq: QTEX) is a technology company focused on advanced connectivity and electronics manufacturing solutions for next-generation hardware markets. Following its acquisition of the AME platform, the Company is developing high-density, thermally optimized quantum connectivity solutions for dilution cryostats and advancing AME applications for defense, aerospace, missile, space, and other mission-critical environments. Inspira also continues to advance its medical technology portfolio, including respiratory support and blood monitoring platforms, while actively working to monetize certain parts of the medical business. For more information, please visit: q-trex.com and www.inspira-technologies.com.

Forward-Looking Statement Disclaimer
This press release contains express or implied forward-looking statements pursuant to U.S. Federal securities laws. These forward-looking statements are based on the current expectations of the management of the Company only and are subject to a number of factors and uncertainties that could cause actual results to differ materially from those described in the forward-looking statements. For example, the Company is using forward-looking statements when it discusses the expected use of the IIA grant funds, the benefits and advantages of the Company’s AME platform and technology, the belief that its existing materials and AME capabilities already go beyond conventional industry approaches by enabling it to engineer materials, conductive pathways and 3D geometry as one integrated platform, its belief that scalable quantum computing requires a new connectivity architecture, and it is building it from the materials level up  that it is pursuing collaborations with quantum computing companies, system integrators, research institutions, government-linked programs and advanced technology customers. These forward-looking statements and their implications are based solely on the current expectations of the Company’s management and are subject to a number of factors and uncertainties that could cause actual results to differ materially from those described in the forward-looking statements. Except as otherwise required by law, the Company undertakes no obligation to publicly release any revisions to these forward-looking statements to reflect events or circumstances after the date hereof or to reflect the occurrence of unanticipated events. More detailed information about the risks and uncertainties affecting the Company is contained under the heading “Risk Factors” in the Company’s annual report on Form 20-F for the fiscal year ended December 31, 2025, filed with the U.S. Securities and Exchange Commission (the “SEC”), which is available on the SEC’s website at www.sec.gov.

Company Contact
QTREX Quantum
Email: info@q-trex.com
Phone: +972-9-9664485

Investor Relations Contact:
Arx Investor Relations
North American Equities Desk
QTREX@arxhq.com

FAQ

What government grant did QTREX Quantum (QTEX) receive on June 9, 2026?

QTREX Quantum received an approximately $1 million grant from the Israel Innovation Authority to develop a purpose-built RF dielectric material. According to QTREX, this funding supports scalable superconducting quantum computing connectivity within cryogenic environments.

How will the Israel Innovation Authority grant support QTREX Quantum (QTEX) technology?

The grant will fund development of a native RF dielectric material for QTREX’s connectivity architecture. According to QTREX, integrating dielectric, conductor and 3D geometry aims to improve signal density, loss and thermal behavior in superconducting quantum systems.

Why is QTREX Quantum (QTEX) focusing on RF dielectric materials for quantum computing?

QTREX is targeting connectivity as a system-level bottleneck in superconducting quantum computing. According to QTREX, more qubits require more RF lines, tighter packaging and lower thermal impact, driving demand for purpose-built materials and monolithic connectivity components.

What is QTREX Quantum’s new connectivity architecture for superconducting quantum computers?

QTREX is developing a quantum connectivity architecture with a native dielectric layer, engineered alongside conductors and 3D geometry. According to QTREX, this integrated AME platform is intended to provide low-loss, high-density RF signal routing in cryogenic environments.

How could QTREX Quantum’s (QTEX) grant-backed project affect future partnerships?

QTREX states that the grant strengthens a core materials layer in its architecture as it enters technical and commercial discussions. According to QTREX, it aims to present a connectivity approach designed specifically for scalable superconducting quantum hardware.