Interdisciplinary Mechanics Laboratory

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Interdisciplinary Mechanics Laboratory We synergistically combine computational modeling and experimental testing across disciplines to solve problems in biomechanics and engineering. Pierce.

At the Interdisciplinary Mechanics Laboratory we synergistically combine computational modeling and experimental testing across disciplines to solve challenging, practical problems in biomechanics and engineering related to soft biological tissues, new engineered materials and applications. This is the research group of Assistant Professor David M. We focus on the theory, development and application of pragmatic computational methods for physical problems of practical importance. Numerical simulation is most effective when motivated and developed in connection with, and verified by, empirical data. Generally speaking, computational models can certainly be extended - and made more complicated - by adding additional parameters into more and more convoluted functional forms. However, if the resulting models cannot be calibrated experimentally (i.e. if the model parameters cannot be uniquely determined in the lab), then the additional complexity cannot be justified. Hence, the development of effective and efficient constitutive models and computational methodologies should be performed in concert with empirical testing, and based on knowledge of material morphology and structural evolution under loading. Our current research includes constitutive modeling and experimental testing of soft biological tissues and reliability prediction in MicroElectroMechanical Systems (MEMS). We aim to contribute significantly to the continued growth and application of computational tools for pragmatic solutions to problems in (bio-)engineering and medical practice. Support im LAB

Your gift to the Interdisciplinary Mechanics Laboratory helps researchers solve challenging, practical problems in biomechanics and engineering related to soft biological tissues, new engineered materials and applications, facilitating, e.g. new fundamental insight to the complex progression of osteoarthritis and increased clinical application of simulation tools. Please contact with Jacki for details on how you can support us:

Jacqueline Veronese
Administrative Coordinator
Department of Mechanical Engineering
University of Connecticut
Room 468, United Technologies Engineering Building
191 Auditorium Road, Unit 3139
Storrs, CT 06269-3139
Email: [email protected]
Phone: +1.860.486.4001

We are pleased to let you know that Muhammed's article "A chemo-mechano-biological modeling framework for cartilage evol...
02/27/2023

We are pleased to let you know that Muhammed's article "A chemo-mechano-biological modeling framework for cartilage evolving in health, disease, injury, and treatment" is now available online in open access!

ScienceDirect is the world's leading source for scientific, technical, and medical research. Explore journals, books and articles.

12/31/2022

Take a look at our latest publication, we aimed to democratize access to Convolutional Neural Networks (CNN) for segmenting cartilage volumes, generating state-of-the-art results for specialized, real-world applications in hospitals and research. Segmentation of cross-sectional and/or longitudinal Magnetic Resonance (MR) Images of articular cartilage facilitates both clinical management of joint damage/disease and fundamental research.

https://onlinelibrary.wiley.com/share/author/NYRHZ8QV65VJJMZTRNIJ?target=10.1002/jor.25509

Please take a look at Phoebe's latest publication:
09/30/2022

Please take a look at Phoebe's latest publication:

The mechanical responses of most soft biological tissues rely heavily on networks of collagen fibers, thus quantifying the mechanics of both individua…

Congratulations to Yunmei on another great journal article. This is a collaboration between the Pierce imLab and the Fen...
07/22/2021

Congratulations to Yunmei on another great journal article. This is a collaboration between the Pierce imLab and the Feng NPR Lab at UConn. Take a look!

Zhao, Y., Siri, S., Feng, B., and Pierce, D. M. (July 21, 2021). "Toward Elucidating the Physiological Impacts of Residual Stresses in the Colorectum." ASME. J Biomech Eng. doi: https://doi.org/10.1115/1.4051846

04/26/2021

Our latest research review on the mechanics of articular cartilage has just been published with in Archive of Applied Mechanics. Read here: https://rdcu.be/cjkDC

Please take a look at our latest paper. Congratulations Stephany!
12/29/2020

Please take a look at our latest paper. Congratulations Stephany!

We aimed to determine the longitudinal effects of low-energy (generally considered non-injurious) impact loading on (1) chondrocyte proliferation, (2)…

Congratulations Yunmei! Another great paper out...
10/12/2020

Congratulations Yunmei! Another great paper out...

Mechanotransduction, the encoding of local mechanical stresses and strains at sensory endings into neural action potentials at the viscera, plays a cr…

Awesome collaborative paper from imLab and NPR lab of Prof. Feng.
10/08/2020

Awesome collaborative paper from imLab and NPR lab of Prof. Feng.

ScienceDirect is the world's leading source for scientific, technical, and medical research. Explore journals, books and articles.

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191 Auditorium Road, Unit 3139
Storrs, CT
06269

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