The concept of a plasma window for the separation of a high pressure gas target region and accelerator vacuum, that was originally developed by Hershcovitch (1995) for electron welding applications, may be suitable for operation with continuous wave accelerators at high particle current output.
At higher particle concentrations unfiltered DE and particles from filter A had the highest effects on cell viability.
A novel receiver concept is presented, based on the use of a dense particle suspension as the heat transfer medium; this medium allows receiver operation at high temperatures (above 650 °C), resulting in significant gains in power plant efficiency.
Physics investigations aim at operation at high density in ITER and DEMO relevant plasma regime above Greenwald density, power exhaust techniques with radiation layers, particle balance studies, and ELM control and mitigation.
Operation at high solids concentration results in decreasing fractional conversion of the feedstock compared to operation at lower concentration.
Furthermore, excellent high-temperature stability of the materials is observed with no measurable deactivation or metal particle sintering over prolonged reactor operation at high-temperature reaction conditions.
This, in turn, allows capacitor operation at higher voltages.
Results of the experiment showed that compost with acceptably chemical properties (OM, 85%; Kjeldahl-N, 3.2%), high degradation and minimum N-losses entails operating at high operation time (78 days), low particle size (1 cm), medium moisture content (40%) and medium to low aeration level (0.2 0.4 l air/min kg).
At higher volumetric particle concentrations, particle segregation was observed.
At low silica concentrations, particle addition increases the long-range cubic order while at higher concentrations particle addition promotes disorganization.
