Using finite element modelling in conjunction with experimental measurements on 3D printed prototypes, we demonstrate that these star-shaped porous systems possess the potential to retain their unusual mechanical properties up to tensile strains exceeding 15%.
Through our prototype system, we demonstrated the feasibility of using such an integrated approach and the study brought insight into applying the proposed domain-independent architecture to different areas of science and engineering in the future.
Using an autothermal microchannel reactor coupling steam methane reforming with methane catalytic combustion as a prototype system, we demonstrate through rigorous simulations that these design innovations have a synergistic effect, resulting in superior steady-state performance and excellent disturbance rejection ability.
After implementing a working prototype of the framework we demonstrated its benefits for a complex workflow application from the domain of multiscale materials modeling.
We demonstrated our prototype system and the resulting visualization to the domain experts in IU Center for Neuroimaging.
We also built the prototypes out of cardboard which we demonstrated alongside our actual gasifiers in an interactive workshop for the community to get feedback on our designs, as well as get the community's ideal designs in terms of size and configuration.
Through finite element modelling of the magnetic field in COMSOL and experimental measurements on a small-scale prototype magnet stack, we demonstrate the required shape of the permanent magnet in order to generate the needed field, and the necessity of soft iron collars to smooth fluctuations along the central axis.
We demonstrate a prototype thermal evolution path for liquid thermal conductivity in solids.
Through simulation, prototype implementation and testbed experiments, we demonstrate that these solutions achieve both flexibility and high performance in their respective contexts.
In this paper, we demonstrate a prototype light field microscope (LFM), analyze its optical performance, and show perspective views, focal stacks, and reconstructed volumes for a variety of biological specimens.
