Study of passively stable, fully detached divertor plasma regimes attained in innovative long-legged divertor configurations
<|begin_of_text|><|start_header_id|>system<|end_header_id|> You are a research archivist expert in dataset metadata. Answer the question truthfully.  <|eot_id|><|start_header_id|>user<|end_header_id|> Here is the Description of a dataset. Description:'Numerical modeling of divertor configurations with radially or vertically extended, tightly  baffled, outer divertor legs has demonstrated the existence of a passively-stable fully  detached divertor regime. In the simulations, long-legged divertors provide up to an order-of- magnitude increase in peak power handling capability compared to conventional divertors.  The key physics for attaining the passively stable, fully detached regime in these simulations  involves the interplay of strong convective plasma transport to the divertor leg outer sidewall,  confinement of neutral gas in the divertor volume, geometric effects including a secondary  X-point, and atomic radiation. New analysis shows that in this regime the detachment front location is set by the balance between the power entering the divertor leg and the losses to the walls o' . Please return only a json list of at most 3 Keywords corresponding to the Description:.<|eot_id|><|start_header_id|>assistant<|end_header_id|> {"Answer" : ["atomic radiation","cross-field transport","divertor","divertor geometry","geometric effects","model assumptions","plasma transport","tokamak"]} <|eot_id|>
 Here is the Description of a dataset. Description:'Numerical modeling of divertor configurations with radially or vertically extended, tightly  baffled, outer divertor legs has demonstrated the existence of a passively-stable fully  detached divertor regime. In the simulations, long-legged divertors provide up to an order-of- magnitude increase in peak power handling capability compared to conventional divertors.  The key physics for attaining the passively stable, fully detached regime in these simulations  involves the interplay of strong convective plasma transport to the divertor leg outer sidewall,  confinement of neutral gas in the divertor volume, geometric effects including a secondary  X-point, and atomic radiation. New analysis shows that in this regime the detachment front location is set by the balance between the power entering the divertor leg and the losses to the walls o' . Please return only a json list of at most 3 Keywords corresponding to the Description:.
Numerical modeling of divertor configurations with radially or vertically extended, tightly  baffled, outer divertor legs has demonstrated the existence of a passively-stable fully  detached divertor regime. In the simulations, long-legged divertors provide up to an order-of- magnitude increase in peak power handling capability compared to conventional divertors.  The key physics for attaining the passively stable, fully detached regime in these simulations  involves the interplay of strong convective plasma transport to the divertor leg outer sidewall,  confinement of neutral gas in the divertor volume, geometric effects including a secondary  X-point, and atomic radiation. New analysis shows that in this regime the detachment front location is set by the balance between the power entering the divertor leg and the losses to the walls o
atomic radiation; cross-field transport; divertor; divertor geometry; geometric effects; model assumptions; plasma transport; tokamak