Eric Prebys.  The primary motivation for nonlinear integrable optics is to reduce the sensitivity to harmonic instabilities and thereby enable stable.

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Presentation transcript:

Eric Prebys

 The primary motivation for nonlinear integrable optics is to reduce the sensitivity to harmonic instabilities and thereby enable stable beams with higher space charge or beam-beam tune shifts.  This cannot be directly measured with the electron beam.  electron beam must be used as pencil beam to probe tune space.  Eventually, we can experiment with space charge compensation techniques (e-lens, etc)  DOE review recognized this as a high priority October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 2 “…the high priority R&D goal for Fermilab is to develop the standalone IOTA ring, including its proton source. A revised cost estimate that includes these additional items [injection, instrumentation, experiments] should be provided…prior to finalizing a funding decision.”

 Move HINS RFQ and proton source to IOTA ring  Locate RF hardware upstream in the NML gallery October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 3

 These pictures say it all:  Major hardware is there, but almost everything attached to that hardware is gone Vacuum systems Power supplies October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 4

 Design/simulation:  Injection beam line design (S. Antipov)  Beam simulation in ring (S. Webb, D. Bruhwiler, E. Prebys, S. Antipov)  Shielding assessment (E. Prebys)  Hardware:  Identify what we have and what we haven’t (E. Prebys, Jerry Leibfritz, Kermit Carlson, Henryk Piekarz + lots of help)  Start making a plan to get the things we need Scrounge wherever possible No serious money until FY17  Begin to resurrect ion source in HINS cave (Henryk Piekarz, et al) October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 5

October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 6 *S. Antipov Debuncher location

October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 7 qF1 L[cm]=10 G[kG/cm]=0.9 Tilt[deg]=0 qF11 L[cm]=10 G[kG/cm]=0.55 Tilt[deg]=0 qD1 L[cm]=10 G[kG/cm]=-1.0 Tilt[deg]=0 qF3 L[cm]=10 G[kG/cm]= Tilt[deg]=0 qD3 L[cm]=10 G[kG/cm]= Tilt[deg]=0 qF2 L[cm]=10 G[kG/cm]= Tilt[deg]=0 qD2 L[cm]=10 G[kG/cm]= Tilt[deg]=0 q_Disp1 L[cm]=10 G[kG/cm]=-0.225Tilt[deg]=0 q_Disp2 L[cm]=10 G[kG/cm]=0.45Tilt[deg]=0 q_Disp3 L[cm]=10 G[kG/cm]= Tilt[deg]=0 Too big for trims. Working to identify available candidates

 Synergia is a hybrid Python/C++ package for single or multiple bunch accelerator simulations utilizing PIC methods. It includes:  Fully nonlinear and symplectic independent-particle physics, as well as symplectic linear maps and arbitrary-order polynomial maps.  Collective effects, including space charge and wake fields, in various approximations ranging from the very simple to computationally-intense, 3-dimensional field calculations.  Synergia is open source ​.  Synergia was developed under the DOE SciDAC program as part of the ComPASS ​ project by James Amundson, Steve Goldhaber, Paul Lebrun, Qiming Lu, Alexandru Macridin, Leo Michelotti (CHEF libraries), Chong Shik Park, Panagiotis Spentzouris and Eric Stern. October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 8 *from the Synergia web page

 Pros:  Extremely powerful  Very scalable and adaptable Lots of handles for custom user interfaces  Lots of (very responsive) local support  Reasonably user friendly Imports Mad8 and MadX files directly Operation fairly intuitive, (which is good because…)  Cons:  Documentation virtually nonexistant! A couple of simple examples and lots of placeholders Usually end up asking Jim Amundsen or reading source code  Extremely limited user base  Still plenty of bugs and “features” Found one running examples, a second a couple days later. Quickly fixed by Jim October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 9

 Starting to run in parallel on Wilson Cluster to run more turns October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 10 Emittance calculation a bit quirky in dispersive regions

 Working on more accurate budget (particularly Henryk)  Probably in the right ball park for most stuff  Assumes we can scrounge magnets and power supply  Working to secure HINS cave so more stuff doesn’t walk away October 24, 2014 E. Prebys - ASTA/IOTA Department Meeting 11