This paper presents a new innovative scientific and engineering approach for describing sub-divertor gas flows of fusion devices by coupling the B2-EIRENE (SOLPS) code and the Direct Simulation Monte Carlo (DSMC) method.
In-depth tests performed on a GPD built up by coupling this device to a fine pitch (50 μm) gas electron multiplier are reported.
The device operates by capacitively coupling the electric fields into the microchannel; thus, no physical connections are made between the electrodes and the microfluidic device.
The device operates by capacitively coupling the electric fields into the microfluidic channel.
Several test rigs have been proposed and built to overcome this drawback by coupling an ultrasonic loading device with a classical uniaxial test bench and superposing the ultrasonic stress to a constant or slowly varying stress.
Performance studies of fuel cell stack and microfuel cell were done by coupling them to hydrogen storage device followed by demonstration of the working of electronic devices.
The analyte volatilization was improved by coupling online a little heating device.
The visco-re-centering device was obtained by coupling Viscous Dampers (VD), with re-centering device based on shape memory alloy (SMA) wires, while the Hysteretic Damper was constituted by low-carbon U-shaped steel plates.
Additionally, one could record the diffuse reflectance spectrum of tissue to characterize absorption and scattering using this device by coupling it with a simple fiber probe [10], [16].
Finally, a first illustrative application of the simulation model of LHTES device is developed by coupling it with a basic mono-zone building performance programme.
