Quantum Computing Inc. Secures Quantum Photonic Vibrometer Order with Delft University of Technology
Quantum Computing Inc. (QUBT) has secured its second purchase order for LiDAR-based R&D equipment from Delft University of Technology in the Netherlands. The order is for a Quantum Photonic Vibrometer (QPV), designed for sensing applications in challenging environments.
The QPV operates at eye-safe wavelength and can characterize vibrational spectra with amplitude as low as 110 nanometers, using advanced photon-counting capabilities for contactless measurements. Assistant Professor Vahid Yaghoubi will lead the benchmarking of QPV against classical vibrometers.
This follows a previous order from Johns Hopkins University for QCi's Scanning LiDAR technology. The collaboration includes planned research publications and testing, with Associate Professor Nathan Eskue from TU Delft visiting QCi's headquarters for training and deployment.
Quantum Computing Inc. (QUBT) ha ottenuto il suo secondo ordine di acquisto per attrezzature di R&S basate su LiDAR dall'Università Tecnologica di Delft nei Paesi Bassi. L'ordine riguarda un Vibrometro Fotonico Quantistico (QPV), progettato per applicazioni di rilevamento in ambienti difficili.
Il QPV opera a una lunghezza d'onda sicura per gli occhi e può caratterizzare spettri vibratori con ampiezze fino a 110 nanometri, utilizzando avanzate capacità di conteggio dei fotoni per misurazioni senza contatto. Il Professore Associato Vahid Yaghoubi guiderà il confronto del QPV con vibrometri classici.
Questo segue un ordine precedente dall'Università Johns Hopkins per la tecnologia Scanning LiDAR di QCi. La collaborazione include pubblicazioni di ricerca pianificate e test, con il Professore Associato Nathan Eskue della TU Delft che visiterà la sede di QCi per formazione e implementazione.
Quantum Computing Inc. (QUBT) ha asegurado su segundo pedido de compra de equipos de I+D basados en LiDAR de la Universidad Técnica de Delft en los Países Bajos. El pedido es para un Vibrómetro Fotónico Cuántico (QPV), diseñado para aplicaciones de detección en entornos desafiantes.
El QPV opera a una longitud de onda segura para los ojos y puede caracterizar espectros vibracionales con amplitudes tan bajas como 110 nanómetros, utilizando capacidades avanzadas de conteo de fotones para mediciones sin contacto. El Profesor Asociado Vahid Yaghoubi liderará la evaluación del QPV en comparación con los vibrómetros clásicos.
Esto sigue a un pedido anterior de la Universidad Johns Hopkins para la tecnología Scanning LiDAR de QCi. La colaboración incluye publicaciones de investigación planificadas y pruebas, con el Profesor Asociado Nathan Eskue de TU Delft visitando la sede de QCi para formación e implementación.
Quantum Computing Inc. (QUBT)는 네덜란드 델프트 공과대학교로부터 LiDAR 기반 연구 개발 장비에 대한 두 번째 구매 주문을 확보했습니다. 이 주문은 도전적인 환경에서 감지 응용을 위해 설계된 양자 광학 진동계(QPV)에 관한 것입니다.
QPV는 눈에 안전한 파장에서 작동하며, 비접촉 측정을 위해 고급 광자 수집 기능을 사용하여 110나노미터의 진폭으로 진동 스펙트럼을 특성화할 수 있습니다. 바히드 야그후비 조교수가 QPV를 기존 진동계와 비교하는 작업을 이끌 것입니다.
이는 QCi의 스캐닝 LiDAR 기술에 대한 존스 홉킨스 대학교의 이전 주문에 이어서 이루어졌습니다. 이 협력은 계획된 연구 출판물과 테스트를 포함하며, TU 델프트의 네이선 에스큐 조교수가 QCi 본사를 방문하여 교육 및 배포를 진행할 예정입니다.
Quantum Computing Inc. (QUBT) a sécurisé sa deuxième commande d'équipement de R&D basé sur LiDAR auprès de l'Université Technique de Delft aux Pays-Bas. La commande concerne un Vibromètre Photonique Quantique (QPV), conçu pour des applications de détection dans des environnements difficiles.
Le QPV fonctionne à une longueur d'onde sécurisée pour les yeux et peut caractériser des spectres vibratoires avec une amplitude aussi basse que 110 nanomètres, en utilisant des capacités avancées de comptage de photons pour des mesures sans contact. Le professeur associé Vahid Yaghoubi dirigera l'évaluation du QPV par rapport aux vibromètres classiques.
Cela fait suite à une commande précédente de l'Université Johns Hopkins pour la technologie Scanning LiDAR de QCi. La collaboration comprend des publications de recherche prévues et des tests, avec le professeur associé Nathan Eskue de la TU Delft visitant le siège de QCi pour formation et déploiement.
Quantum Computing Inc. (QUBT) hat seine zweite Bestellung für LiDAR-basierte F&E-Ausrüstung von der Technischen Universität Delft in den Niederlanden gesichert. Die Bestellung betrifft einen Quanten-Photonen-Vibrometer (QPV), der für Sensoranwendungen in herausfordernden Umgebungen konzipiert wurde.
Der QPV arbeitet bei augensicheren Wellenlängen und kann Vibrationsspektren mit Amplituden von bis zu 110 Nanometern charakterisieren, wobei fortschrittliche Photonenzählfähigkeiten für kontaktlose Messungen verwendet werden. Assistenzprofessor Vahid Yaghoubi wird die Benchmarking des QPV im Vergleich zu klassischen Vibrometern leiten.
Dies folgt einer vorherigen Bestellung von der Johns Hopkins Universität für die Scanning LiDAR-Technologie von QCi. Die Zusammenarbeit umfasst geplante Forschungsarbeiten und Tests, wobei der außerordentliche Professor Nathan Eskue von der TU Delft die Zentrale von QCi für Schulungen und Implementierungen besuchen wird.
- Secured second purchase order for quantum sensing technology
- Expanding international market presence with prestigious university client
- Technology demonstrates superior capabilities over traditional solutions
- Building academic partnerships for research and validation
- None.
Insights
QUBT's quantum photonic vibrometer represents a significant advancement in sensing technology. The device's ability to achieve
The selection by TU Delft's Department of Aerospace Structures and Materials is particularly noteworthy given their specialized requirements for material testing in challenging environments. Their intention to benchmark the QPV against classical vibrometers will generate valuable comparative performance data that could accelerate adoption across research institutions if advantages are conclusively demonstrated.
What's strategically important here is QUBT's focus on quantum sensing applications where near-term commercial value can be realized, rather than pursuing only long-horizon quantum computing applications. By targeting high-precision measurement needs in aerospace materials testing, the company is establishing a foothold in specialized markets where quantum advantages deliver immediate utility.
The collaborative aspect of this relationship - including planned publications and testing protocols - suggests this is more than a simple product sale. These activities may generate valuable intellectual property and technical refinements while providing third-party validation from a globally respected institution. With this being just the second disclosed customer for their LiDAR-based technology, QUBT is still early in its commercial trajectory but gaining important momentum in the academic research segment.
This purchase order represents incremental but positive progress in QUBT's commercialization journey, following their previous sale to Johns Hopkins University. The company is successfully targeting prestigious research institutions that can validate their technology, though we should note both disclosed customers remain academic rather than industrial entities.
Without financial details on the order value, it's difficult to assess direct revenue impact. However, for a company with a
The planned benchmarking against traditional vibrometers by TU Delft should generate valuable comparative data that could support future sales efforts. If performance advantages are conclusively demonstrated by such a respected institution, this creates powerful third-party validation for approaching both additional academic and potential industrial customers.
Most promising is the deeper collaborative relationship beyond just equipment purchase. Associate Professor Eskue's visit to QUBT headquarters for training and planned collaboration on publications suggests a partnership with knowledge-sharing potential. The company appears to be building an ecosystem around its technology rather than simply selling devices.
For investors, this announcement indicates QUBT is successfully advancing its go-to-market strategy in quantum sensing, focusing on applications where quantum advantages can deliver immediate value rather than waiting for longer-term quantum computing breakthroughs. This specialized approach offers a path to near-term revenue while the broader quantum computing market matures.
This purchase order is for a Quantum Photonic Vibrometer (QPV) that can be used in sensing applications in challenging operational environments over a range of distances. Assistant Professor Vahid Yaghoubi played a crucial role in the technical evaluation of the Quantum Photonic Vibrometer (QPV) to ensure its capabilities align with the advanced research needs of TU Delft in Non-Destructive Testing (NDT) and Structural Health Monitoring (SHM).
"At TU Delft, we are always looking for cutting-edge technologies that push the boundaries of non-destructive testing. QCi's Quantum Photonic Vibrometer stood out due to its advanced photon-counting capabilities, high sensitivity, and ability to perform contactless measurements. Through our evaluation, we found its unique advantages over traditional LDVs to be highly compelling for our research applications. This purchase marks a significant step in developing next-generation NDT/SHM techniques by integrating quantum sensing technologies into our work," stated Assistant Professor Dr. Vahid Yaghoubi of TU Delft.
With this purchase, TU Delft, with the leadership of Professor Vahid Yaghoubi, will be benchmarking QPV against results from other classical vibrometers to verify and validate its performance and characteristics. Using leading edge photonic sensing techniques to achieve high speed, single-photon sensitivity, and noise rejection, QCi's QPV operates at an eye-safe wavelength and can accurately characterize vibrational spectra with an amplitude as low as 110 nanometers.
"With this order, we have an exciting opportunity to provide our American-made technology and services to such an esteemed, international technology university, underscoring market demand for more sensitive and effective vibrometer solutions that cannot be attained through traditional technology. Our quantum photonic technology exponentially suppresses background noise, creating accurate outcomes while supporting a variety of research applications," stated Dr. William McGann, Chief Executive Officer of QCi.
In March, Associate Professor Nathan Eskue, who specializes in robotics, manufacturing, project management, and rapid iteration prototyping for the Faculty of Aerospace Engineering at Delft University of Technology, joined QCi at its global headquarters in
This order comes less than a year after internationally renowned John Hopkins University purchased QCi's Scanning LiDAR, which uses cutting edge single-photon detection technology coupled with high precision time-tagging at a wavelength of 532nm, to test and evaluate underwater LiDAR technology. Dr. Jeeva Ramanathan, PhD, Quantum Tech Lead at QCi, who authored two patents for this advanced technology and has led its development at the Company added, "this latest order of our quantum photonic vibrometer illustrates the demand for our safe, precise, and non-destructive testing technology which can be used in an array of applications from determining the quality and integrity of materials to monitoring performance of materials during operational use."
About Quantum Computing Inc.
Quantum Computing Inc. (Nasdaq: QUBT) is an innovative, integrated photonics and quantum optics technology company that provides accessible and affordable quantum machines to the world today. QCi's products are designed to operate at room temperature and low power at an affordable cost. The Company's portfolio of core technologies and products offer unique capabilities in the areas of high-performance computing, artificial intelligence, and cybersecurity, as well as remote sensing applications.
About Assistant Professor Dr. Vahid Yaghoubi
Dr. Vahid Yaghoubi is an Assistant Professor at the Faculty of Aerospace Engineering at TU Delft. He is a leading expert in Artificial Intelligence, Uncertainty Quantification, and Applied Vibration. He is the head of the Q-VAIbe research group, where they leverage quantum physics and AI to develop the next generation of vibration-based monitoring techniques. His research aims to enhance the accuracy, sensitivity, reliability, and efficiency of monitoring systems to push the boundaries of non-destructive testing (NDT) and structural health monitoring (SHM) in complex engineering systems.
About Associate Professor Nathan Eskue
Dr. Nathan Eskue is an Associate Professor of Artificial Intelligence in Manufacturing at the Faculty of Aerospace Engineering at TU Delft, specializes in artificial intelligence, robotics, manufacturing, project/ business management, along with rapid iteration prototyping. Associate Professor Eskue has spoken at over fifty international conferences on technical topics such as artificial intelligence, aerospace, defense and quantum.
Company Contact:
Rosalyn Christian/John Nesbett
IMS Investor Relations
qci@imsinvestorrelations.com
Forward-Looking Statements
This press release contains forward-looking statements as defined within Section 27A of the Securities Act of 1933, as amended, and Section 21E of the Securities Exchange Act of 1934, as amended. These forward-looking statements and forecasts, generally identified by terms such as "may," "will," "expect," "believe," "anticipate," "estimate," "intends," "goal," "objective," "seek," "attempt," "aim to," or variations of these or similar words, involve risks and uncertainties because they relate to events and depend on circumstances that will occur in the future. Those statements include statements regarding the intent, belief, or current expectations of QCi and members of its management as well as the assumptions on which such statements are based. Prospective investors are cautioned that any such forward-looking statements are not guarantees of future performance and involve risks and uncertainties, including the comparative performance and market demand for quantum photonic vibrometers, and that actual results may differ materially from those contemplated by such forward-looking statements. Except as required by federal securities law, QCi undertakes no obligation to update or revise forward-looking statements to reflect changed conditions.
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SOURCE Quantum Computing Inc.
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