A point that has been overlooked is whether plastic anisotropy affects the thermomechanical coupling, expressed via the Taylor Quinney coefficient.
In a paper to appear in IJ. Eng. Sc., Gleb Gil Goviazin and I address this issue experimentally. The abstract follows:
An nteresting point that G. Goviazin and I report about in a paper to appear in Int. J. Eng. Science.
A fun experiment with our new IR Telops M2K camera.
A 316L stainless steel specimen is impacted using a split Hopkinson bar. The steel's temperature increases as a result of thermomechanical coupling, as recorded by our new Telops camera. credit: G.G. Goviazin
The paper is freely accessible through:
https://www.sciencedirect.com/science/article/pii/S2352711022000644
The paper is freely accessible through:
https://www.sciencedirect.com/science/article/pii/S2352711022000644
We have analyzed the so-called Resonant Frequency Analysis, a method used to assess the stability of dental implants. In spite of its widespread use, there is only a handful of engineering analyses that define the limits of applicability and the sensitivity of the method. So, here is another example of what I call "Denta; Engineering".
We are reporting nice and simple experiments to assess the reduction of shock energy of an impact passing through methylcellulose hydrogel. The temporary link is:
In a new paper, we report our observations of the mechanical response (quasi-static and dynamic) of woire arc additively manufactured steels. An interesting alternative to the "conventional" powder based 3D printing. The paper is temporarily available on:
MC gels are quite common in our life, from medicine through food additives. We have recently worked on their capability to mitigate strong shocks, but now we are concentrating on quasi-static behavior. This new paper examines and summarizes our findings on what we believe is the simplest yet accurate way to model them. Please note that the downloading period is limited.
