F G D ▁has ▁a ▁three - fold ▁project ive ▁ 2 D ▁read outs ▁providing ▁a ▁quasi - 3 D ▁read out . ▁This ▁read out ▁configuration ▁increases ▁the ▁detection ▁of ▁short ▁tracks ▁almost ▁uniformly ▁in ▁all ▁directions . ▁Due ▁to ▁its ▁geometry ▁and ▁couple d ▁with ▁the ▁TO F ▁and ▁the ▁H AT PC s , ▁the ▁Super F G D ▁has ▁the ▁cap ability ▁to ▁detect ▁fast - neut rons , ▁which ▁could ▁be ▁useful ▁in ▁the ▁reconst ruction ▁of ▁the ▁ant ine ut r ino ▁energy . ▁ ▁H AT PC ▁ ▁The ▁High ▁Ang le ▁Time ▁Pro jection ▁Ch amb ers ▁( H AT PC s ) ▁will ▁surr ound ▁the ▁Super F G D ▁in ▁the ▁plane ▁per pend icular ▁to ▁the ▁incoming ▁neut r ino ▁beam . ▁Their ▁design ▁is ▁similar ▁to ▁that ▁of ▁the ▁existing ▁T PC s , ▁as ▁they ▁both ▁use ▁the ▁Micro M eg as ▁modules ▁technology ▁for ▁track ▁reconst ruction . ▁The ▁main ▁novel ▁feature ▁of ▁the ▁H AT PC s , ▁aside ▁from ▁their ▁high ▁angle ▁coverage , ▁is ▁the ▁use ▁of ▁the ▁resist ive ▁Micro M eg as ▁technology . ▁The ▁latter ▁consists ▁of ▁applying ▁a ▁layer ▁of ▁resist ive ▁material ▁to ▁increase ▁the ▁charge - sh aring ▁capabilities ▁of ▁the ▁Micro M eg as ▁modules . ▁This ▁reduces ▁the ▁number ▁of ▁read out ▁channels ▁and ▁allows ▁for ▁a ▁spatial ▁resolution ▁which ▁is ▁as ▁good ▁as ▁the ▁one ▁in ▁the ▁current ▁T PC s . ▁ ▁TO F ▁