DIII-D RESEARCH OPPORTUNITIES FORUM FOR THE 2015 EXPERIMENTAL CAMPAIGN
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ID | Title | Research Area | Name | Affiliation |
Time Req'ed |
ITPA Joint Exp |
ITER IO Urgent Research Task |
5 | Optimization of Counter-current Beam Heating in Steady State Scenarios | Steady State | GA | Yes | No | No | |
13 | Optimize & test robustness of qmin>1.5, fNI=1 scenario | Steady State | LLNL | No | No | No | |
38 | Higher betaN, lower torque SS-hybrids | Steady State | Columbia U | Yes | No | No | |
45 | Extend performance of qmin > 2 AT scenario by optimizing MHD stability | Steady State | Columbia U | No | No | No | |
50 | Kink and tearing stability in low rotation qmin~1.5 scenario using n=2 NTV | Steady State | Department of Energy | Yes | No | No | |
58 | Why Does the Heat Flux Increase in the Secondary Divertor Under the BetaN = constant Constraint? | Steady State | GA | No | No | No | |
62 | Can Radiating Divertor Be Effective for AT Plasmas at Elevated Power Input? | Steady State | GA | No | No | No | |
63 | Can Flux Expansion Help Control Carbon Influx in AT Plasmas at Elevated Power Input in Long Pulse? | Steady State | GA | No | No | No | |
83 | Optimal Plasma Shape for High-Beta, Steady-State Hybrid Scenario | Steady State | GA | No | No | No | |
92 | Evaluate Prospect for ITB in high q-min Steady Scenarios for FNSF | Steady State | Retired | Yes | No | No | |
93 | Optimizing ITER Steady State Scenarios with High-qmin (qmin > 1.5) | Steady State | Retired | No | Yes | No | |
94 | Control of n=1 Tearing Modes using Off-axis Broad ECCD in Steady State Discharges with qmin > 1.5 | Steady State | Retired | Yes | No | No | |
99 | Performance Enhancement via qmin control | Steady State | PPPL | No | No | No | |
117 | Scenario integration: developing a detached, radiating divertor to support an AT core | Steady State | GA | No | No | No | |
119 | Super H-mode pedestal with detached divertor | Steady State | GA | No | No | No | |
163 | Tearing mode avoidance using EC in very high betaN, high li discharges | Steady State | GA | No | No | No | |
164 | High li, maximum betaN at reduced q95 (< 7) | Steady State | GA | No | No | No | |
165 | Dependence of confinement and stability on toroidal rotation in high li discharges | Steady State | GA | No | No | No | |
166 | The impact of increased pressure gradient on scenarios for fully noninductive operation | Steady State | GA | Yes | No | No | |
167 | Produce fNI = 1 discharges at q_min near 1.5 using off-axis injection with varying toroidal rotation | Steady State | GA | Yes | No | No | |
168 | Beta limit and bootstrap current fraction in ITER steady-state scenario discharges | Steady State | GA | No | No | No | |
169 | Establish the incremental confinement of EC power in high betaN steady-state scenario discharges | Steady State | GA | No | No | No | |
171 | Assess the destabilization mechanism for the n = 1 tearing mode in steady-state scenario discharges | Steady State | GA | Yes | No | No | |
191 | Mitigate the VH-mode X-event | Steady State | GA | No | No | No | |
198 | ELM suppressed steady state hybrid plasmas | Steady State | GA | Yes | No | No | |
203 | Control EP transport in high qmin steady-state plasmas using central ECH | Steady State | GA | No | Yes | No | |
229 | Is the plasma response to external 3D fields large in the core of SS hybrids? | Steady State | Consorzio RFX | No | No | No | |
231 | Probing flux pumping mechanisms in SS hybrids using the plasma response to external 3D fields | Steady State | Consorzio RFX | No | No | No | |
251 | Off-Axis ECCD in Steady-State Hybrids | Steady State | GA | No | No | No | |
368 | Turbulence behavior in high qmin steady state scenario | Steady State | UW-Madison | No | No | No | |
370 | D3d/EAST Joint Exp. on Extending Noninductive Scenario to Higher Beta and Testing Lower NBI Torque | Steady State | ASIPP | No | No | No | |
386 | Reduced heat flux in highly powered AT plasmas using either carbon or metallic-based divertors | Steady State | GA | No | No | No | |
389 | ITER steady-state scenario in USN, +BT | Steady State | ORNL | No | No | No | |
390 | Ideal wall betaN stability dependency on edge pedestal | Steady State | ORNL | No | No | No | |
391 | Steady-state hybrid in scaled ITER shape | Steady State | ORNL | No | No | No | |
400 | High beta_pol plasmas with enhanced pedestal temperature | Steady State | UCLA | No | No | No | |
401 | Core transport model validation in high-betaP, low-torque, steady-state plasmas | Steady State | UCSD | No | No | No | |
415 | Wind Tunnel Validation of ITER Steady-State Using ELM-Suppressed Hybrid Scenario | Steady State | GA | No | No | No | |
426 | Mitigation of AEs in high performance discharges | Steady State | PPPL | No | No | No | |
427 | Investigating Flux Pumping with ELM Suppression in hybrids | Steady State | Oak Ridge Associated Universities | No | No | No | |
432 | Impact of impurities and detachment on AT plasmas | Steady State | GA | No | No | No | |
448 | Advanced tokamak scenarios with metal tiles | Steady State | LLNL | Yes | No | No |