R&D

UConn and Yale Drive Quantum Innovation with State Support

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The Quantum Initiative at UConn, in partnership with Yale University, is a dynamic and collaborative effort dedicated to advancing quantum science through interdisciplinary collaboration. By fostering a community through joint seminars, workshops, and outreach events, QuantumCT is working towards establishing a premier quantum center in Connecticut.

A futuristic glowing quantum computer unit, 3d render

Program Highlights and Recent Developments

QuantumCT has been making significant strides, particularly with the recent announcement from the Governor of Connecticut. In a bold move to position Connecticut as a leader in innovation, the Governor announced a $100 million investment aimed at bolstering research and development in cutting-edge technologies, including quantum science. This substantial investment underscores the state’s commitment to fostering advancements in this transformative field.

A key development for QuantumCT is the introduction of Quantum Seed Grants, which are funding innovative solutions to real-world problems. Nine Connecticut-based research groups have received one-year seed grants to tackle challenge problems issued by corporate partners. These projects aim to develop algorithms for simulating molecular drug actions, invent accurate sensors for extreme environments, and address other critical needs in industries like aerospace and biotech.

Yale brings world-renowned expertise in quantum science and technology to the table, complementing UConn’s strengths and facilitating a robust exchange of ideas and resources. This partnership is vital in addressing the complex challenges in quantum research and development. Yale’s Vice Provost for Research, Michael Crair, highlights the importance of these collaborations, stating, “These grants are fertilizing creative, potentially transformative projects in quantum science and technology across several key industries, all of which are central to Connecticut’s present and future economy.”

QuantumCT has been active in hosting events that bring together leading minds in quantum science. For instance, Josiah Sinclair from MIT-Harvard CUA presented a colloquium at UConn on a new platform for quantum science in early 2024, featuring programmable arrays of single atoms. Events like this highlight the initiative’s dedication to cutting-edge research and collaboration.

Looking ahead, QuantumCT aims to position Connecticut as a global hub for quantum education, job training, and research innovation. The collaborative efforts of UConn, Yale, and industry partners are paving the way for a faster pace of quantum innovation. Pamir Alpay, UConn’s Vice President for Research, Innovation, and Entrepreneurship, notes, “These seed grants will fuel not only quantum discovery but also career opportunities in a high-demand STEM field.”

With the recent $100 million investment from the state, QuantumCT is well on its way to driving forward the next wave of technological advancements, transforming industries, and creating new economic opportunities. For more information about upcoming events and the latest research from QuantumCT, visit QuantumCT.org.

UConn Secures $10.5 Million AFRL Contract to Propel High-Speed Aerospace Innovations

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Airplane taking off from the airport, front view.

UConn has secured an additional $10.5 million contract from the U.S. Air Force Research Laboratory (AFRL) to support its aerospace manufacturing research, bringing total project funding close to $30 million. This partnership focuses on overcoming manufacturing challenges in aerial systems designed for high speeds and altitudes. Seven faculty members, along with graduate and post-graduate students, will tackle welding-related issues and develop advanced high-temperature materials. These interdisciplinary projects span material science, mechanical engineering, civil engineering, and chemistry.

Professor Rainer Hebert, the primary investigator and Director of the Pratt & Whitney Additive Manufacturing Center, emphasized the value of integrating government, industry, and academia in research. UConn’s collaboration with AFRL, which began in 2018, involves major industry partners like Raytheon, Pratt & Whitney, and Collins Aerospace. This partnership has sharpened UConn’s focus on application-relevant research, distinguishing their work from industry projects constrained by production schedules.

The new grant will fund a four-year research project combining experimental and theoretical approaches to advance materials for RTX, formerly Raytheon. Research will explore the behavior of non-metallic, high-temperature materials and additive manufacturing of refractory metals. Additionally, the project will investigate the design and processing of metamaterials capable of modifying heat and electromagnetic fields for improved thermal management.

This continued collaboration underscores UConn’s role as a valuable partner to AFRL and key industry players, driving advancements in aerospace technology and contributing to Connecticut’s economy. Faculty members who will work on projects covered through the $10.5 million contract include Mark Aindow, Pamir Alpay, Osama Bilal, Lesley Frame, Jeongho Kim, Rainer Hebert, and Steven Suib.

Click here for more information about the AFRL project funding.

Nanoparticle-Stabilized Emulsions and Foams

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PUBLICATION

Shing-Yun Chang, Sahil R. Vora, Charles D. Young, Abhishek Shetty & Anson W. K. Ma. Viscoelasticity of a carbon nanotube-laden air–water interface. Eur. Phys. J. E 47, 18 (2024). https://doi.org/10.1140/epje/s10189-024-00411-0

Bottled liquid soap being produced in factory.

Emulsions and foams are ubiquitously found in pharmaceutical, agricultural, personal care, and food products. Although it has been known for more than a century that small, nanoscale particles may be added to stabilize these products and increase their shelf-life, accurately capturing the behavior of these particles remains extremely challenging. In this article, UConn researchers critically compare two state-of-the-art experimental methods for studying particles at an interface, laying the foundation for predicting and improving the stability and performance of a wide range of commercial products.

Click here to read the full article.

Predicting Tool Wear in Precision Machining through Unsupervised Machine Learning

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PUBLICATION

Debasish Mishra, Utsav Awasthi, Krishna R. Pattipati & George M. Bollas. Tool wear classification in precision machining using distance metrics and unsupervised machine learning. J Intell Manuf (2023). https://doi.org/10.1007/s10845-023-02239-5

tooth gear wheel machining In this article, Debasish Mishra, PostDoc (UConn ‘23) and coauthors introduce a novel approach that applies unsupervised Machine Learning to predict tool wear in precision machining accurately. Tested across multiple machines, workpieces, toolings, and cutting settings, the research offers a promising new methodology for improving efficiency and reliability in machining operations by predicting tool replacement decisions.

This research was supported by the Air Force Research Laboratory, Materials and Manufacturing Directorate [FA8650-20-C-5206].

A hole is milled on a CNC machining center

New England Security Day 2024

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On March 15th, the Innovation Partnership Building hosted New England Security Day 2024 (NESD), featuring cutting-edge cybersecurity research by experts from academic and professional backgrounds. Participants included industry professionals and academic institutions such as Boston University, Brown, Harvard, UMass, MIT, Northeastern, WPI, and Yale. Attendees had the opportunity to learn about the latest advancements in technology and network for potential collaboration and employment prospects. The conference welcomed a diverse audience of professionals, academics, and graduate and undergraduate students interested in cybersecurity, regardless of their familiarity with advanced concepts like fuzzers, machine learning methods for intrusion detection, or efficient post-quantum cryptography.

Visit the NESD 2024 web page for additional information and to view the NESD 2024 video, complete event program and additional photos.

Pratt & Whitney Additive Manufacturing Center Expands Defense Research

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image of jet and submarineThe Pratt & Whitney Additive Manufacturing Center (AMC) at UConn Tech Park has expanded its Department of Defense-related research efforts in recent months with new projects related to submarine and aerospace manufacturing.

The submarine industrial base hopes to meet the demand for quality submarine parts by focusing increasingly on additive manufacturing. A team of UConn materials science and engineering faculty along with colleagues from the University of Rhode Island recently started a four-year project funded by the National Institute for Undersea Vehicle Technology (NIUVT) to investigate properties of a steel commonly used in submarine production. The team will explore the material characteristics of parts made of this steel using additive manufacturing as compared to traditional manufacturing technologies such as castings and forgings.

The AMC supports the additive manufacturing aspects of the project that include powder characterization as well as chemical and thermal analysis besides the production of parts. In its newest NIUVT-funded project the AMC will exploit the layer-by-layer manufacturing approach of additive manufacturing to tailor the behavior of bronze materials at specific locations within a part. What is nearly impossible with castings can likely be accomplished with additive manufacturing, for example, to optimize sections of parts for high strength while other regions bear the brunt of energy absorption during service.

The NIUVT additive manufacturing projects and the AMC involvement echo parallel efforts by the Navy to develop an industrial base for additive manufacturing of submarine parts. To this end, the Navy set up an additive manufacturing Center of Excellence in 2022 and in the same context invited researchers from seven US universities to form an academic consortium.

The AMC is part of the consortium and will soon embark on its first project and address the important aspect of metal powder characteristics. Key additive manufacturing technologies use metal powder, and a detailed knowledge of the powder characteristics and flow behavior is needed to advance additive manufacturing to a production level.

Similarly, the Air Force pursues additive manufacturing for some of their current and future systems, particularly in high-temperature applications. Recently, the AMC started a new four-year project sponsored by the Air Force Research Laboratory (AFRL) on refractory metals for additive manufacturing of high-temperature components. Refractory metals such as niobium have melting points well over 4,000 degrees Fahrenheit but have been difficult to produce with conventional manufacturing technologies. The AMC will investigate process conditions during additive manufacturing and their effects on the details of the niobium metals that matter for their use in high-temperature applications.

With the NIUVT, Navy, and Air Force research activities, the AMC supports some of the most critical applications for the nation and in the process prepares students with expertise in state-of-the-art manufacturing technologies.