Our focus is on predicting a Deflagration to Detonation Transition (DDT) when a large number of energetic devices are present.
This approach provides a simple and efficient way to fabricate 3D ordered nano-energetic arrays with superior reactivity and the potential on the application in micro-energetic devices.
Research Interests: Computational fluid mechanics, oceanic and atmospheric flows, turbulent flow, physical acoustics, chemically-reactive flow, energetic materials, microfluidic devices, dynamical systems, numerical methods, and asymptotic and stochastic techniques.
His research focuses on computational fluid mechanics, oceanic and atmospheric flows, turbulent flow, physical acoustics, chemically-reactive flow, energetic materials, microfluidic devices, dynamical systems, numerical methods, and asymptotic and stochastic techniques.
Finally the fundamental limitations to optimisation of the interfacial electron transfer dynamics are discussed, addressing in particular the potential role of interfacial energetic inhomogeneities in limiting device optimisation.
Results indicate that even for low energetic wave trains, the device is able to capture energy and amplify the water velocity, which is indeed energy conversion capacity.
In this scenario, a very limiting factor is the shortage of energetic resources in mobile devices.
The development of light and efficient Compact Heat Exchangers (CHE) for automotive or aerospace applications has motivated recent research for the energetic optimisation of these devices.
As the analyzed technologies were designed for more energetic wave climates, smaller devices have been considered, downscaled according to the Froude similarity criterion, in order to match Mediterranean wave conditions.
By engineering devices with different energetic alignments of the CTS and triplet exciton, we can influence the triplet exciton density in the device.
