To promote solutions of key fusion problems like tritium retention and wall erosion, more measured data of carbon deposition in remote areas of fusion devices are needed. These data are essential to understand and model local and global particle fluxes and to make predictions for future devices like ITER. In spring 2000 the development of a new diagnostic, quartz microbalance (QMB), was started to measure quantitatively, in situ and time resolved (less than or equal to 1 s) the material deposition in the sub divertor region of JET. Calibration work of mass and temperature characteristic was done at FZ-Julich giving a layer mass sensitivity of Gamma(mass) = 7.5 x 10(-9) g/Hz and a temperature sensitivity of Gamma(temp)(100 degreesC) approxim...
In JET, hydrocarbon transport in the inner divertor has been studied on a shot to shot basis by mean...
The JET Task Force Fusion Technology (TF-FT) was launched in 2000 to use the unique capabilities, fa...
Inconel-600 blocks and stainless steel covers for quartz microbalance crystals from remote corners i...
A Quartz Microbalance (QMB) system was implemented in the inner divertor region of JET in order to m...
A set of quartz crystal microbalances (QMB) was used at JET with full carbon wall to monitor mass er...
Estimates of erosion, deposition and H-isotope retention in JET from previous divertor campaigns hav...
In the year 2001, a quartz microbalance system (QMB) was installed in the remote area of the inner J...
The deposition of carbon in the louvre area of the inner divertor of JET was measured by means of a ...
Rotating collectors and quartz microbalances (QMBs) are used in JET to provide time-dependent measur...
Material deposition was measured in the private flux region of JET by means of a quartz microbalance...
Rotating collectors (RC) were installed in JET during the period 2005-2007, each providing a time-re...
The problem of deposition on sensitive surfaces of eroded material from the discharge chamber cerami...
The European Fusion Development Agreement's mission for JET is the development of ITER scenarios exp...
The migration of beryllium, tungsten and carbon to remote areas of the inner JET-ILW divertor and th...
In JET, hydrocarbon transport in the inner divertor has been studied on a shot to shot basis by mean...
The JET Task Force Fusion Technology (TF-FT) was launched in 2000 to use the unique capabilities, fa...
Inconel-600 blocks and stainless steel covers for quartz microbalance crystals from remote corners i...
A Quartz Microbalance (QMB) system was implemented in the inner divertor region of JET in order to m...
A set of quartz crystal microbalances (QMB) was used at JET with full carbon wall to monitor mass er...
Estimates of erosion, deposition and H-isotope retention in JET from previous divertor campaigns hav...
In the year 2001, a quartz microbalance system (QMB) was installed in the remote area of the inner J...
The deposition of carbon in the louvre area of the inner divertor of JET was measured by means of a ...
Rotating collectors and quartz microbalances (QMBs) are used in JET to provide time-dependent measur...
Material deposition was measured in the private flux region of JET by means of a quartz microbalance...
Rotating collectors (RC) were installed in JET during the period 2005-2007, each providing a time-re...
The problem of deposition on sensitive surfaces of eroded material from the discharge chamber cerami...
The European Fusion Development Agreement's mission for JET is the development of ITER scenarios exp...
The migration of beryllium, tungsten and carbon to remote areas of the inner JET-ILW divertor and th...
In JET, hydrocarbon transport in the inner divertor has been studied on a shot to shot basis by mean...
The JET Task Force Fusion Technology (TF-FT) was launched in 2000 to use the unique capabilities, fa...
Inconel-600 blocks and stainless steel covers for quartz microbalance crystals from remote corners i...