#quantumsupremacy

QuEra Computing News

In a move that solidifies New Mexico’s reputation as a major global hub for deep tech and quantum research, QuEra Computing and Roadrunner Venture Studios (RVS) have established a $4 million strategic alliance. This agreement will establish a state-of-the-art quantum testbed in Albuquerque, designed to create a physical bridge between cutting-edge academic research and industrial-scale commercialization.

Housed at the recently formed Roadrunner Quantum Lab (RQL), this project represents a critical turning point in New Mexico’s planned $300 million state-led investment in its growing quantum economy. By integrating QuEra’s industry-leading neutral-atom technology into the heart of Albuquerque’s Innovation District, the collaboration wants to hasten the creation of quantum-ready gear and software, giving a sandbox for the next generation of quantum entrepreneurs.

The Innovation District's New Anchor

The agreement represents more than merely a cash investment; it is a purposeful commitment to both physical infrastructure and human resources. Leading neutral-atom quantum computing company QuEra, based in Boston, will establish a physical operations center in Albuquerque as part of the deal.

This operations center will be important for the region’s future, as QuEra aims to hire full-time specialists responsible for:

overseeing the infrastructure on-site. Conducting specialized training for the local workforce. cultivating a talent pool that can handle the advanced complexity of quantum mechanics. New Mexico is demonstrating its readiness to go from theoretical research to an era of quantum production and deployment by bringing in a company that runs some of the most cutting-edge publically available quantum computers in the world. QuEra effectively becomes the “anchor tenant” of this new ecosystem.

Solving the Bottlenecks: POTC and Classical Compute

The $4 million program is deliberately focused on two main facilities aiming to overcome the most severe challenges in current quantum development: hardware validation and hybrid system integration.

The Testing Center for Photonics and Optics (POTC)

One of the most fundamental challenges in neutral-atom quantum computing is the extreme precision need to handle individual atoms using lasers. The POTC will operate as a dedicated laboratory for prototyping and validating laser systems and photonic components.

Key characteristics of the POTC include:

Tools for precision calibration to confirm beam stability. Single-atom interaction characteristics are validated. Infrastructure that enables companies to refine items like as modulators, lenses, and laser controllers without having to develop their own optical tables or vacuum chambers from the ground up.

The Classical Compute User-Access Facility

Quantum computers do not operate in isolation; they require tremendous classical computing capacity to perform error correction, data intake, and task orchestration. High-performance server infrastructure intended for safe, low-latency processing will be placed in the User-Access Facility.

This facility is devoted to "hybrid quantum-classical workloads," in which the quantum processor handles some difficult tasks while classical computers handle the remainder of the simulation.

Neutral-Atom Technology: The Strategic Option

It is a decided strategic choice to adopt QuEra’s neutral-atom technology. Unlike superconducting qubits used by firms like IBM and Google which require severe dilution freezers to attain near-absolute zero neutral-atom devices use lasers to trap and chill atoms in a “magneto-optical trap” at normal temperature within a vacuum.

This technology provides a number of specific features, including:

Flexibility and Scalability: Neutral-atom arrays offer unique benefits for hardware validation. FPQA Technology: QuEra’s Field Programmable Qubit Array (FPQA) allows researchers to move atoms during a calculation, effectively rewiring the “wiring” of the computer on the fly. Adaptability: This versatility makes the platform a suitable testbed, since it can be adapted to reflect a wide variety of physical systems and industrial issues.

Supporting the "Quantum Coalition"

The new testbed will serve as a technology testing ground for the Roadrunner Quantum Coalition. This formidable coalition includes some of the most prestigious scientific institutions in the United States:

National Laboratories, Sandia. Los Alamos National Laboratory. The University of New Mexico (UNM). Historically, national labs have been the vanguard of quantum research, but their facilities are usually high-security and difficult for private firms to access.

Economic Impact and Industrial “Time to Value”

The establishment of this testbed is a crucial part of Governor Michelle Lujan Grisham's "Quantum New Mexico" program. Supporters say that the state is the ideal substitute for Silicon Valley in the quantum age due to its distinctive PhD density and existing laboratory infrastructure.

By providing easily available, industrial-grade hardware, the partnership hopes to reduce the "time to value" for quantum technologies. The program intends to assist innovators in three critical sectors by reducing the barrier to entry:

Defense. Logistics. science of materials. The QuEra-RVS partnership is also expected to create high-paying technical employment and attract additional venture capital to the region. Albuquerque is developing itself as a one-stop shop for quantum commercialization by providing a local environment that allows a firm to design, test, and validate a component within a few square miles.

Looking Ahead to 2026

Official reports from February 2026 state that the facilities will open in late 2026. The distribution will follow a tiered access model:

Hoa Dinh's International Mission: Troy University Bridges the Global Quantum Frontier

Troy University News

Dr. Hoa Dinh, an Associate Professor of Mathematics at Troy University, went on a high-impact academic tour of South Korea and Vietnam to build quantum science relationships. It was designed to establish the university as a significant partner in the worldwide quantum supremacy competition while developing information theory and quantum algorithms.

Through guest lectures, research seminars, and significant government meetings, Dr. Dinh connected Alabama's higher education system to East and Southeast Asia's rapidly emerging technology hubs. Troy University has gained global academic awareness and presence thanks to this tour.

Boosting Hardware and Math in South Korea

The tour began in South Korea, a semiconductor technology and quantum investment leader. Dr. Dinh focused on the convergence of matrix analysis and quantum computing, which is essential for improving current and future quantum hardware.

Doctor Dinh gave a specialist study session at Cheongju on December 3. Jeju International Workshop: From December 4–6, he attended the International Workshop on Operator Means, which brought together top mathematicians and physicists.

Three new cooperative research projects were created after Dr. Dinh engaged in lengthy technical discussions at the Jeju workshop. These collaborations include:

Dr. Sejong Kim (Chungbuk National University): Quantum matrix algorithms.

Dr. Hayoung Choi (Kyungpook National University) studies matrix least-squares concerns, a critical mathematical framework for creating quantum error-correcting codes in quantum systems.

Vietnam: A Vision for Quantum-Ready Cities

Dr. Dinh returned to Vietnam to focus on social change and regional development. He presented an official study to Da Nang's Department of Science and Technology on the city's potential as Asia's first “quantum-ready” environment.

According to Dr. Dinh's plan, a quantum-ready city has many technological and educational pillars:

Integrating quantum-secure networks prevents quantum-based hacking.

Specialized Workforce: Developing local quantum sensor and computational talent.

Infrastructure: Getting regional governments ready for the “Second Quantum Revolution”.

Dr. Dinh did an intensive lecture tour in Ho Chi Minh City, visiting four major academic institutions to explain quantum science to academics and students:

Hutech University

Saigon Uni

HCM City University of Education

NTT University

These public lectures were meant to intrigue pupils about an inaccessible topic. Thus, quantum algorithm-interested students inquired.

A Global Research Web: Beyond Asia

The voyage began in Asia, but Dr. Dinh's collaboration network spans Europe and the Pacific. Troy University faculty join these global research groups, giving students great foreign experience.

National Honor and Media Impact

In Vietnam, intense media coverage highlighted Dr. Dinh's efforts. He twice appeared on Vietnam's national news, praising foreign high-tech partnership. From this national exposure, young scientists have shown more interest.

Dr. Dinh expects these exchanges to lead to further collaborative works, boosting Troy University's international scientific status. This brings new data and novel methods to Troy, which the College of Science and Engineering considers a significant win.

Troy University Quantum Science Future

Quantum research underpins financial modeling, medical development, and cybersecurity. By participating in these global frontiers, Troy University's Mathematics Department advances its research and courses.

New Photonic Circuit Enables Scalable Quantum Computing

Overview

Researchers designed a photonic integrated circuit to stabilize and scale trapped-ion quantum computing. By substituting bulky free-space optics with silicon nitride waveguides and focusing grating couplers, the method addresses multiple ions on a chip precisely.

By regulating optical mode interference using adjoint-based optimization, the concept offers programmable beam shaping with minimal crosstalk. This integrated platform efficiently illuminates ions between 68 and 80 μm in height through electrode holes. Higher-order modes enable spin-motion coupling, which is essential for complex quantum simulations beyond qubit manipulation. Overall, this nanophotonic approach is reliable for building large-scale quantum processors with better coherence and alignment errors.

Individual trapped-ion addressing using adjoint-optimized photonic circuits

Researchers discovered a new way to manipulate qubits on a microchip, advancing quantum technology and possibly removing one of the biggest “bottlenecks” in the construction of a quantum computer. The research describes a multimode photonic integrated circuit (PIC) that manipulates trapped ions with unprecedented accuracy using light.

Quantum computers could revolutionize cryptography, medicine, and complex material simulations. While individual quantum bits (qubits) work well, controlling hundreds or thousands of them is a physical and architectural nightmare. Industry scalability has long been a problem.

End of “Bulky” Era

Trapped ions—atoms locked in place by electromagnetic fields—have been the most popular platform for these devices for years. Researchers use laser beams to communicate with atoms and calculate. These beams were previously delivered using "free-space optics," a complex system of mirrors and lenses outside the vacuum chamber where the ions live.

The study notes that conventional free-space optics struggle with alignment stability and scalability as qubits increase. Maintaining steady optical paths for each ion becomes impractical as systems grow. The new work by Melika Momenzadeh and Maxim R. Shcherbakov suggests putting these heavy optical systems on the silicon chip.

Adjoint Optimization: A New Design Method

The innovation relies on “adjoint-based optimisation”. The small grating couplers that steer light on a chip are notoriously difficult to build due to the physical requirements. Basic parameter sweeps are often too slow or limited to find the best geometries.

Researchers created “apodised” grating couplers using a “inverse design” based on gradients. The light field can be accurately adjusted by these uneven features. The researchers transmitted light to a 2.2-micrometer diffraction-limited patch with a “focusing efficiency” of -3.8 dB.

“Modal Interference” steering light

Multimode photonics is the device's most innovative feature. Instead of using one light wave, the circuit guides the laser beam by interfering between numerous “modes” of light, such as the TE00 and TE10 modes.

Changing the amplitude and phase of these modes lets the chip "aim" the laser at certain ions in a chain. This allows four configurations: focusing on the left or right ion, two outer ions, or one center ion.

These controls are achieved via multimode interferometers (MMI) and adiabatic directional couplers (ADC), which enable “reconfigurable” light delivery. Photonic circuits are small at 16 by 45 micrometers.

Silence Matters: Fighting “Crosstalk”

Quantum “Crosstalk” is dangerous. If light “leaks” onto a neighboring ion when you change its state, the computation may fail. Researchers produced a chip with excellent isolation. When two neighboring ions are addressed, the “leakage” to the center ion is reduced to -60 dB, improving quantum process fidelity. Researchers say “achieved levels are generally suitable for many quantum information processing tasks.” They further note that this performance level matches the most advanced experimental findings.

Effects to Come

Significant implications for the field's future. Due to silicon nitride (SiN), these circuits can be made using normal semiconductor fabrication methods. They may be mass-produced in existing “foundries”.

Additionally, the technology allows “mid-circuit measurements”. Scientists must often measure qubits in intricate quantum calculations while others work. The integrated technique is more stable because light sources and ions are on the same chip in the same mechanical and thermal environment.

Even though the current study uses exact simulations and theoretical design, the authors note that silicon photonics already has the building blocks for these circuits. This provides a precise experimental path for constructing “large-scale trapped-ion systems” for future computer generations.

Nu Quantum Company

The Spanish government's €9.75 million investment in Cambridge-born Nu Quantum has changed the worldwide quantum supremacy race. This $60 million (£47 million/€51 million) investment relies on this funding. The largest Series A funding round for a quantum networking business.

For Nu Quantum to become a leading European hub for photonic infrastructure and quantum networking, a Spanish subsidiary is a key requirement of this deal. Dr. Carmen Palacios-Berraquero, CEO and founder of Nu Quantum, and Oscar López Águeda, Minister for Digital Transformation and Public Administration, made the news at the fourth S4i summit in Madrid.

Moving to Distributed Computing

Nu Quantum is pioneering distributed quantum computing while the industry develops more powerful individual quantum computers. Each quantum computer lacks enough qubits to solve practical issues. Their strategy relies on Nu Quantum's Entanglement Fabric technology. Real-time connections combine the computational capability of numerous quantum processors.

A new Spanish subsidiary will focus on commercializing the Quantum Networking Unit. These devices are the quantum world's "switches," while Photonic Integrated Circuits (PICs) will offer the "cables"—ultra-fast, low-loss modules that carry data between nodes.

The best method to commercialize quantum computing for drug discovery, climate modeling, energy optimization, and communications security is via a network, say experts.

Economic Impact and “Technological Sovereignty”

The Spanish Society for Technological Transformation (SETT) funded this investment, which the government says is essential to the PERTE Chip initiative. The PERTE Chip uses NextGenerationEU recovery funds to strengthen local semiconductor and microelectronics capabilities.

The government hopes to achieve numerous strategic goals by building Nu Quantum's infrastructure in Spain:

The project will immediately produce over thirty highly skilled jobs by attracting top individuals from around the world.

Ecosystem Integration: Nu Quantum will work with Barcelona's facility of Photonic Sciences (ICFO), a major Spanish research facility. European Sovereignty: By enhancing Europe's "technological sovereignty," the effort ensures that the continent stays competitive and doesn't rely on American or Asian hardware for infrastructure.

A Leadership “Homecoming”

The agreement is important to Dr. Carmen Palacios-Berraquero personally and professionally. National Grid Partners, Gresham House Ventures, and Amadeus Capital Partners have supported her leadership since she started the company in 2018 as a Cambridge spin-off.

Dr. Palacios-Berraquero said, “It is particularly meaningful to contribute to a national commitment to quantum infrastructure built on PICs and the QNU because it was born and raised in Spain.” She says the financing supports their solution and recognizes Spain's photonics potential.

Minister Áscar López Águeda expressed optimism, noting that Spain is poised for everyday debates on quantum technology. Spain's quantum ecosystem will benefit from Nu Quantum's secure networks, enabling commercial applications.

Understanding Nu Quantum in Detail

Since Nu Quantum is a “key player” in the global quantum business, their technological and strategic issues must be examined.

The Issue: Scalability Bottleneck

The “main challenge” of quantum computing in industry is scalability. Due to quantum state instability, building a huge quantum processor is difficult. Nu Quantum suggests a distributed solution. They suggest a network of smaller computers instead of one large one.

Core Technology: Entanglement Fabric

Entanglement Fabric is the company's signature technology. This architecture connects quantum processors to construct massive, distributed networks.

The Quantum Networking Unit (QNU) is the main hub or “switch” for quantum data.

Photonic Integrated Circuits (PICs): These enable quick, low-loss switching and sensor modules. Quantum circuits preserve quantum features as quantum information moves between processors.

Public-private strategic collaboration

Nu Quantum adopts public-private partnerships. Its $60 million Series A investment closed in December 2025 with a broad collection of foreign and government sponsors. These backers included:

Strategic investors include National Grid Partners, Sumitomo (Presidio Ventures), and East Innovate.

Venture financing includes IQ financing, Amadeus Capital Partners, Gresham House Ventures, and Morpheus Ventures.

Spain's SETT, UK's NSSIF, and Cambridge Enterprise Ventures are government and institutional. Effects on Real Industries

Nu Quantum provides networked computing capacity to unlock economic value in numerous key areas:

Healthcare: Complex molecular simulations accelerate drug discovery.

Sustainability: Energy and climate modeling improvements.

Simulating complicated materials.

Israel Quantum News

Israel is fighting a quiet but fierce battle for technical survival in the Ministry of Defense's basements and Rehovot's high-tech facilities. The winners of the “Quantum Race” are expected to achieve unprecedented economic, technological, and military might, similar to the mid-20th century space race. Israel needs this to hide its digital “Iron Dome” from foes, not merely for academic purposes.

Strategic Stakes: New Power Triad

China and the US dominate the world market, but Israel has a vital industry. One benefit of “quantum supremacy” is the capacity to break almost all Internet passwords and codes.

Quantum technology may change intelligence gathering beyond encryption. Former IDF intelligence chief Tamir Hayman said that quantum sensors, communication, and computers would provide 90% of future intelligence data. This will make Israel's digital environment more secure but could expose the world's digital archives.

Israel's Three Quantum Strategy Pillars

Israel's approach involves three technical domains that support national security:

Quantum sensing is the latest frontier. Through precise gravity and magnetic field measurements, Israel is developing sensors that can “see” through deep water or solid rock. Tracking submarines in the deep seas or detecting underwater passageways is revolutionized.

Israel is investing in Quantum Key Distribution (QKD) to protect against algorithms that factor large numbers quickly. This method uses physics to alert the sender of any eavesdropping attempt.

Quantum Computing: Israel is developing Noisy Intermediate-Scale Quantum (NISQ) technology to build a universal, error-corrected quantum computer in eight to ten years. Multi-front battle and drug discovery logistics are already streamlined using these methods.

Revolution funding: domestic and international

The 2018 Israel National Quantum Initiative (INQI) cost NIS 1.25 billion. It reached NIS 1.5 billion in 2020 after a continuous increase, and it will receive capital until 2025.

Significantly affected is the home ecosystem. According to MAFAT quantum director Nadav Cohen, the number of Israeli university groups conducting quantum research climbed from 144 to 240 between 2022 and 2025, while the number of specialist quantum firms increased from five to twenty.

International funding remains complicated:

Horizon Europe offered Israeli companies almost €1.1 billion between 2021 and 2024. EU investment in Israeli quantum computing is 20–200 times that of the US government.

Though Washington and Jerusalem have close security links, US support in Israeli quantum programs has been “underwhelming”. Recent AIPAC festivities revealed that quantum technology was one of only $47.5 million in US investment in Israeli technologies.

The Regional Gap: In 2025, the US and Qatar formed a $1 billion quantum technology joint venture, much greater than its current joint venture with Israel.

Changing Alliances and Geopolitics

The “perfect storm” of international uncertainty is affecting Israel. In 2025, some European allies imposed arms embargoes on Israel, threatening scientific collaboration. US “America First” has also sparked concerns about technological assistance's long-term stability.

To tackle this, officials like Hadas Lorber are creating a “ring of smart power”. This involves finding technological collaboration “lower-hanging fruit” like:

Azerbaijan, Kazakhstan, and Uzbekistan are interested in Israel's technical research.

Gulf States: Israel and the UAE collaborate well online, although the Gaza conflict has strained relations. Israel provides “human capital” and intellectual property, but the Gulf states provide capital and energy infrastructure.

The “Impatient Innovation” Culture

Avi Hasson's “Impatient Innovation”—a bottom-up, necessity-driven approach to problem-solving—has contributed to Israel's prosperity. After recent conflicts, many Israeli reservists left “ad-tech” to start defense companies. The number of defense enterprises in the country has practically doubled in two years due to this development.

Singapore-based OGBC Group has completed its Series C preferred equity investment in PsiQuantum, Corp.This strategic capital infusion from the OGBC Premier PQ Fund has moved utility-scale, fault-tolerant quantum systems forward. By joining a significant group of worldwide institutional backers, OGBC Group is positioning itself at the forefront of global computation research.

Global Powerhouses Collide

Significant are the investment round's size and quality. NVIDIA (via NVentures), Temasek, BlackRock, and Baillie Gifford are among OGBC's elite backers. Australian Federal and Queensland Governments have significantly engaged in the round, highlighting quantum supremacy's growing strategic and geopolitical importance.

According to OGBC Managing Partner and Chairman Jayden Wei, this step aligns long-term financing with innovative technology that could alter entire industries. PsiQuantum's “convergence of scientific rigor and industrial-scale execution” is unique, says Wei. NVIDIA CEO Jensen Huang agrees that the industry is reaching a “inflection point.”

Racing for Million-Qubit System

PsiQuantum has focused solely on fault-tolerant computing since its founding, unlike many other quantum companies that specialize in “Noisy Intermediate-Scale Quantum” (NISQ) devices and systems, which are often small and prone to malfunctions. Our goal is to build the first utility-scale quantum computer, which requires one million physical qubits.

PsiQuantum's technical advantage is silicon photonics. Unlike trapped ions or superconducting loops, PsiQuantum transports quantum information via photons. The company can sidestep the key cooling and wiring challenges that hinder other quantum models by using normal semiconductor production methods. Scalability is an important part of bringing quantum technologies from labs to industry.

Benefits of Hybrid Workflows

Hybrid quantum classical processes may provide quantum computing's early economic benefit. In these instances, quantum computers will undertake complex simulations and optimizations while GPUs and AI infrastructure process more general data. The digital economy's structural concerns may be addressed by this strategy:

When silicon chips are physically limited, compute scarcity can provide specialized computing. Complex quantum algorithms find patterns in huge, unstructured data. Scientific simulation: Accurately modeling molecules for novel batteries or pharmaceuticals, eliminating trial-and-error R&D. Controlling restricted quantum resources and private issue encodings are becoming key advantages. In the future global compute grid, new protocol layers may govern how systems communicate and access data.

OGBC: Builder-First

The involvement of OGBC Group reflects a shift in venture capital thinking toward “deep tech” and away from short-term software cycles. These technologies allow you to own the future's infrastructure, but they're expensive and time-consuming.

Singapore-based OGBC has grown from a regional innovation powerhouse to a global investment player with a presence across Asia. Over 200 industry events have been held by the organization since 2023, making it a “trusted home” for long-term, practical effect groups. With controlled capital and teamwork, OGBC Premier supports cutting-edge innovations including AI computing, sophisticated semiconductors, biotech, and programmable financial infrastructure.

2030 and Beyond

While PsiQuantum pursues a million-qubit device, Temasek and OGBC will ensure Southeast Asia remains a crucial quantum ecosystem hub. Globally successful semiconductor businesses, government agencies, and long-term investors are cooperating, indicating that quantum technology is becoming a reality.

UTC Joins Southeastern Quantum Collaborative to Advance Space and National Security Technologies

University of Tennessee at Chattanooga news

University of Tennessee at Chattanooga (UTC) has accepted an invitation to join the Southeastern Quantum Collaborative (SQC), solidifying its national leadership in quantum research. This agreement puts UTC at the forefront of quantum research and development, focusing on space and military.

A Regional Quantum Innovation Leader

The University of Alabama in Huntsville (UAH) created the Southeastern Quantum Collaborative to focus quantum expertise in the Southeast. The alliance seeks to use the region's strong defense, missile defense knowledge, and large prime contractor network. These components are integrated by the SQC to speed quantum information science's practical application.

UTC is among the first members. The relationship began with IBM, Davidson Technologies, and Alabama A&M University. Along with UTC, Leidos, IonQ, and Oak Ridge Associated Universities are new partners. This diverse group unites government research, private-sector technical heavyweights, and university brilliance to focus on future computers and communication.

Leadership and Strategy Vision

In its multi-year goal to dominate quantum, UTC's participation in the partnership is a natural next step. Chancellor Lori Mann Bruce said the school has made “intentional, strategic investments” to prepare the area and its students for this high-stakes profession. Chancellor Bruce believes quantum technology could enhance national security, manufacturing, medical research, energy, and communication systems. She said the alliance increases Tennessee's competitiveness and promotes innovation in Tennessee Valley Corridor cities.

UAH vice president for research and economic development (emeritus) and SQC program director Ray Vaughn applauded the university's efforts. He noted that the UTC Quantum Center and its faculty are “internationally known” and will boost quantum science in the area.

Unmatched infrastructure and investment

UTC was invited to the SQC due of its financial and material ties to quantum engineering. The university is the first in the US to have a permanent connection to a commercial quantum network. This capability lets researchers and students use real-world quantum apparatus, which is rare in academia.

UTC's quantum research and infrastructure funding is impressive at over $11.1 million. In this total are:

Institutional commitments estimated at $4.5 million. An additional $6.6 million for cutting-edge labs, high-performance computing, and research programs.

The institution is also creating a Governor's Chair in Quantum Science alongside Oak Ridge National Laboratory. With this long-term commitment, the state wants to expand its next-generation technology presence and improve its national laboratory and academic research linkages.

High Educational Standards

More than research, UTC is leading the way in quantum workforce education. Tennessee's first private or public university to offer a Bachelor of Science in quantum physics was UTC in 2024.

The school offers many academic programs in this field, including:

Undergraduate quantum information science and technology.

A computer science Ph.D. program for top quantum researchers.

UTC is developing a quantum science Ph.D. program to become the Southeast's leading quantum education institution.

Reputable Study Center

At the heart of these efforts is the UTC Quantum Center, which houses many specialized research facilities. Secure communications testbeds, quantum computing resources, and atomic and optical physics facilities are included. These resources can make the school a “trusted hub” for technology development and instruction.

Not a solo job. UTC has current partnerships with Harvard, Purdue, Texas A&M, UT Knoxville, and UT San Antonio. EPB, Oak Ridge, Los Alamos, and Hamburg universities collaborate nationally and internationally.

Quantum SDT

The South Korean quantum technology startup SDT has completed a $20.6 million (roughly 30 billion KRW) investment round, a milestone for the global high-performance computing business. This venture, led by Praxis Capital Partners and backed by NH venture & Securities, changes how the sector hopes to create AI infrastructure.

As AI models get exponentially more complex, silicon-based data centers are approaching their processing power and energy efficiency limits. SDT aspires to overcome this constraint and create a “hybrid” paradigm that might revolutionize the global economy's digital base by directly merging quantum computing capabilities into AI infrastructures.

New Approach: AI-Quantum Hybrid

Universal quantum computers' theoretical potential and business applicability are now disconnected. Even though full-scale universal quantum computers are years away, SDT is pushing a “hybrid” technique as a short-term and long-term solution.

This method transfers complex mathematical problems like optimization and cryptography to quantum processors. A smooth integration that increases speed and decreases energy consumption without redesigning present systems is conceivable since fundamental AI workloads are still executed on traditional hardware.

SDT’s “Full-Stack” Advantage

One reason investors trust SDT is its “full-stack” capabilities. Numerous deep tech businesses focus solely on software or hardware components. In contrast, SDT integrates software, control electronics, and hardware.

Praxis Capital Partners representatives said SDT is the only Korean technology business with this much experience. SDT's delivery of Korea's first commercial quantum computer distinguishes it from other deep-tech businesses in the early stages of R&D.

Commercial momentum and aggressive financial growth

SDT is gaining commercial traction, unlike many quantum enterprises that rely on long R&D cycles without producing money. The company signed the first South Korean quantum hybrid system contract to prove its business strategy to investors and clients.

SDT's financial forecast is aggressive. The company anticipates these growth milestones:

Revenue will rise over 200% in the first half of 2026.

Annual Forecast: If contract negotiations go as anticipated, SDT expects income to rise by almost 500% annually from 2025. This expected surge is driven by AI data centers seeking a competitive edge in processing speed and energy efficiency.

Strategic IPO Path

With this cash, SDT is boosting its technology-track IPO preparations. The company hired NH Investment & Securities, an IPO underwriting expert, as its primary underwriter.

Despite not meeting profitability requirements, South Korea's “technology-track IPO” targets companies with great development prospects and technical knowledge. SDT intends to list on the stock exchange in 2026 after a technology evaluation.

Future Resource Allocation and CEO Vision

SDT CEO Jiwon Yoon believes this funding will make quantum computing part of the global digital infrastructure. Through the IPO, Yoon plans to make SDT a “global quantum company” with the funding.

The $20.6 million will go to three important sectors:

Refine Core Technology: Enhancing quantum processor error correction and stability.

Infrastructure Build-out: Stable AI-quantum hybrid environments for public and private clients.

Global Expansion: Expanding beyond South Korea into IT hotspots with high AI demand. See also Rigetti roadmap update: Cepheus-1-108Q System Launch Status.

Global and National Context

Google, IBM, and IonQ are often seen as fighting for “quantum supremacy,” but SDT's trajectory suggests that specialized, nimble hybrid application companies may be able to reach commercial viability faster. SDT claims that the “Quantum Era” will arrive by subtly integrating into data centers as infrastructure suppliers rather than experimental labs.