Epicyclic Helical Channels for Parametric Resonance Ionization Cooling

Award Information
Agency:
Department of Energy
Branch
n/a
Amount:
$750,000.00
Award Year:
2011
Program:
STTR
Phase:
Phase II
Contract:
DE-FG02-10ER86451
Award Id:
n/a
Agency Tracking Number:
94733
Solicitation Year:
2011
Solicitation Topic Code:
64 b
Solicitation Number:
DE-FOA-0000508
Small Business Information
552 N. Batavia Ave, Batavia, IL, 60510-
Hubzone Owned:
N
Minority Owned:
N
Woman Owned:
N
Duns:
117921259
Principal Investigator:
RollandJohnson
Dr.
(757) 870-6943
rol@muonsinc.com
Business Contact:
ThomasRoberts
Dr.
(630) 840-2424
tjrob@muonsinc.com
Research Institute:
Thomas Jefferson National Accelerator Facility

12000 Jefferson Avenue
Newport News, VA, 23606-
() -

Abstract
Muon beam ionization cooling is a key element in the design of next-generation low-emittance and high-luminosity muon colliders. New approaches in that cooling could greatly improve the performance and capabilities of these colliders. To obtain low-emittance muon beams, a new concept is being developed that combines ionization cooling in a Helical Cooling Channel (HCC) with parametric resonances. The novelty consists of creating alternating orbit dispersion in the HCC by imposing an additional helical field of opposite helicity. In this project we will first develop a theoretical description of an alternating-dispersion muon cooling channel that includes a solenoid with two superimposed transverse helical fields with different characteristic periods. We will then conduct an extensive numerical analysis of the orbital motion in such a channel by identifying the periodic orbit, its stability region, its characteristic parameters and their control. On the basis of this numerical analysis, we will perform simulations of the Epicyclic Parametric-resonance Ionization Cooling (EPIC) channel including parametric resonance excitation, ionization cooling and the analysis of non-linear effects, such as chromatic and spherical aberrations and their compensation. This analysis will provide the basis for the full-scale engineering-design simulations to be performed in Phase II. Commercial Applications and Other Benefits: This new approach will allow more aggressive designs of cooling channels for muon colliders that will result in significant increase of luminosity with lower detector backgrounds. The resulting greater feasibility and discovery potential of muon colliders such as Higgs factories and energy-frontier machines will make their construction more likely. Formation of highly focused neutrino beams can also benefit from the technology that will be developed in this project.

* information listed above is at the time of submission.

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