I am looking to recruit a highly motivated an independent postdoctoral researcher to study, using theoretical and computational techniques, topics related to the dynamics of metamaterials, with specific interest in topological insulators. The position is available immediately, available for at least 1.5 years.
I am looking to recruit 1-2 PhD students to start at the Department of Mechanical Engineering at Boston University in Fall (September) 2025. I am interested in working with students with a background and passion for computational and applied mechanics at the continuum scale, applied to modern scientific problems. My specific recent research interests lie in: (1) Elastogranular mechanics; (2) Non-traditional forms of computing and physical intelligence; (3) Topological mechanics and dynamics; (4) Coupled physics phenomena. My work is generally collaborative w
I am looking to recruit a highly motivated and independent postdoctoral researcher to study, theoretically and computationally topics related to the dynamics of metamaterials, with specific emphasis on wave phenomena. The position is available immediately, available for two years, and potentially relevant backgrounds for the position include:
1. Phononic crystals
2. Acoustic or phononic bandgaps
3. Non-reciprocal wave propagation
I am looking to recruit a highly motivated and independent postdoctoral researcher to study, theoretically and computationally topics related to the dynamics of metamaterials, with specific emphasis on wave phenomena. The position is available immediately, and potentially relevant backgrounds for the position include:
1. Phononic crystals
2. Acoustic or phononic bandgaps
3. Non-reciprocal wave propagation
The College of Engineering at Boston University has embarked on a bold new strategic plan that will pursue excellence and impact along convergent themes: (1) Intelligent, Autonomous and Secure Systems, (2) Synthetic Biology, Tissue Engineering and Mechanobiology, (3) Energy, Sustainability and Climate, (4) Materials by Design, (5) Photonics and Optical Systems, and (6) Neuroengineering, Neuroinformatics, and Neuroscience.
I am looking to recruit a highly motivated and independent postdoctoral researcher to study, theoretically and computationally topics related to the dynamics of metamaterials, with specific emphasis on wave phenomena. The position is available immediately, and potentially relevant backgrounds for the position include:
1. Phononic crystals
2. Acoustic or phononic bandgaps
3. Non-reciprocal wave propagation
I am looking to recruit a high motivated and independent postdoctoral researcher to study, through theoretical and computational approaches, various topics related to the topological mechanics of solids, including phononic topological insulators, odd elasticity, and non-Hermitian mechanics. The position is available for an initial 8-month duration, with possible extension to 24 moths depending on availability of funding. The position is available immediately.
Preferred qualifications for the postdoc position include:
The college of engineering at Boston University has embarked on a bold new strategic plan that will pursue excellence and impact along six convergent and collaborative research themes: (1) Intelligent, Autonomous and Secure Systems, (2) Synthetic Biology, Tissue Engineering and Mechanobiology, (3) Energy, Sustainability and Climate, (4) Materials by Design (5) Photonics and Optical Systems, and (6) Neuroengineering, Neuroinformatics, and Neuroscience.
I am looking to recruit a highly motivated and independent postdoctoral researcher to study, via the development of new topology optimization techniques, various scientific issues surrounding phononic topological insulators. An example of recent related work from my group can be found here. The position is available for a 20-month duration, with possible extension to 36 months depending on the availability of funding, with a proposed start date of June 1 or July 1, 2021. &nb
I am looking to recruit a highly motivated and independent postdoctoral researcher to study, via the development of new computational methodologies, the deformation mechanisms in crystalline nanostructures. The specific emphasis is on predicting the plasticity at timescales that far exceed those possible in classical atomistic simulations, and verifying the predictions through collaborations with experimentalists. The position is available as soon as possible for at least a 1.5-year duration, with possible extension to future years depending on the availability of funding.
