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Prof. Matia Yoav

Assistant Professor
Materials Science &  Mechanical Engineering

 

Director of AUTOnomous MATErials Lab (AUTOMATE Lab)

Research Interest

Soft Robotics, Fluid-Structure Interactions, Fluid Dynamics

My research focuses on the interdisciplinary field of fluid-structure interactions, where interplay between fluid dynamics and solid mechanics in a host of non-linear transient phenomena governing the physics of the system. I aim to provide predictive analytic models, rationale to physical observations and insight into the mechanisms at play behind natural occurring phenomena. In my work I provide balance of theoretical modeling, experimental illustrations and numerical simulations to promote and enlighten design and technologies.

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Published Work

Literary Accomplishments

Matia, Y., Kaiser, G. H., Shepherd, R. F., Gat, A. D., Lazarus, N., & Petersen, K. H. "Harnessing Nonuniform Pressure Distributions in Soft Robotic Actuators." Advanced Intelligent Systems (2022): 2200330. Received inner-cover in respective issue.

Matia, Y., An, H. S., Shepherd, R. F., & Lazarus, N. "Magnetohydrodynamic levitation for high-performance flexible pumps." Proceedings of the National Academy of Sciences 119.29 (2022): e2203116119. Elected as Highlight in respective issue.

Liu, Z., Pan, W., Wang, K., Matia, Y., Xu, A., Barreiros, J. A., ... & Wallin, T. J. "Acoustophoretic Liquefaction for 3D Printing Ultrahigh‐Viscosity Nanoparticle Suspensions." Advanced Materials 34.7 (2022): 2106183.

Kuperman, S., Ronen, R., Matia, Y., Zigelman, A., Suss, M. E., & Gat, A. D. "Modelling the fluid mechanics in single-flow batteries with an adjacent channel for improved reactant transport." Flow 2 (2022).

Matia, Y., & Gat, A. D. " Dynamics of Fluid Driven Autonomous Materials: Interconnected Fluid Filled Cavities to Realize Autonomous Materials ". arXiv:1812.08717, (2021).

Breitman, P., Matia, Y., & Gat, A. D. "Fluid mechanics of pneumatic soft robots." Soft Robotics (2020).

Matia, Y., Elimelech, T., & Gat, A. D. "Leveraging internal viscous flow to extend the capabilities of beam-shaped soft robotic actuators." Soft Robotics 4.2 (2017): 126-134. Elected as Highlight in respective issue.

Matia, Y., & Gat, A. D. "Dynamics of elastic beams with embedded fluid-filled parallel-channel networks." Soft robotics 2.1 (2015): 42-47.

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Honors and Awards

2020-2022

Army Research Laboratory Research Associate Program Fellow.

2019-2021

Zuckerman STEM Leadership Postdoctoral Research Fellow.

2019-2021

The Royal Society, Newton International Research Fellow.

2020

Pnueli Award, in recognition of the best doctoral research conducted at the Faculty of Mechanical Engineering, Technion-IIT.

2018

Faculty Excellence in Research Award, Technion-IIT.

2016-2018

Ministry of Science, Technology and Space Award, Technion – IIT.

2016

Technion award for excellence in teaching (as a T.A.).

2015

Hershel Rich Technion Innovation Award, Technion-IIT.

2014

KLA-TENCOR Excellence In Research Award, Technion-IIT.

2014

Tark Award For Research Of Aerospace Structures, Technion-IIT.

Degrees

Ph.D.

2019

Mechanical engineering, Technion - Israel institute of technology.
(With Distinction, Pnueli Award, in recognition of the best doctoral research conducted at the Faculty of Mechanical Engineering.)

M.Sc.

Mechanical engineering, Technion - Israel institute of technology.

2014

B.Sc.

2010

Mechanical engineering, Afeka Tel Aviv Academic College of Engineering (Cum Laude).

Video Media

Following insights from our predictive model, we categorize five dominant mechanisms and demonstrate their influence in practice on both individual actuators and as part of a six-legged, untethered walking robot.

An elastomeric pump maintains pressure, flow rate under large-scale deformation. Paradoxically The “heart” of many soft-bodied robots are rigid. We present a theoretical framework and supporting experiments for an elastomeric, solenoid-driven pump that leverages magnetohydrodynamic levitation and the properties of viscous fluids to achieve unprecedented pressures and flow rates under deformation. 

All Videos

All Videos

All Videos
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Movie S5 - Experimental demonstration of ESP integral embodiment, deployment stage

Movie S5 - Experimental demonstration of ESP integral embodiment, deployment stage

00:16
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Movie S4 - Numerical investigation of viscous fingers, 3D projection

Movie S4 - Numerical investigation of viscous fingers, 3D projection

00:47
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Movie S3 - Numerical investigation of viscous fingers, 2D top view

Movie S3 - Numerical investigation of viscous fingers, 2D top view

00:47
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Starting in 2015, the First-to-field published pioneer work to introduce the utilization of fluid Viscosity in the field of soft robotics

News Spotlight

Now soft robots can breathe easy.  Inovative deformable pump gives soft robots a heart! Published July 2022, "Magnetohydrodynamic Levitation for High-Performance Flexible Pumps," 

Written about us:

  1. Cornell Chronicle.

  2. ScienceDaily.

  3. Daily Beast.

  4. Unite.AI.Robotics.

Matia 2022, Magnetohydrodynamic Levitation, Images, Slide2.TIF

Check out Prof. Robert F. Shepherd in his inspiring analysis: Why Robots Must Be Grown, Not Assembled. 

Cutting edge work by Dr. Vito Cacucciolo and Prof. Herbert Shea. An integral flexible fluidic pump for soft robotic applications.

Check out this fascinating work by Dr. Benny Gamus and Lior Salem under the supervision of Prof. Amir D. Gat and Prof. Yizhar Or

Get in Touch

e-mail: ym279@cornell.edu

Phone: (607)-279-9871

Social Media:

Researching and Writing
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