Abstract
Abstract
The initial design phase of an ion linac's front end often
requires the use of several software programs, each dedicated to a
specific component. These components typically include the ion
source, a low-energy beam transmission line (LEBT) equipped with
electromagnets, a measurement station, and finally the Radio
Frequency Quadrupole (RFQ). Unfortunately, many of the legacy and
proven software tools in this field lack user-friendly GUIs and have
significant learning curves. In this paper, we present a novel
approach: a unified software solution that offers a cohesive GUI and
integrates with existing legacy software. This single-software
approach not only simplifies the design process but also
significantly reduces the time required for design and optimization.
Our method has been successfully applied to various design
configurations, demonstrating its efficiency in both the learning
and design phases, compared to the traditional multi-software
approach. In addition, we present DemirciPRO as an illustrative
implementation of our unified software approach. This software tool
showcases real-world scenarios and comparisons drawn from an ongoing
proton linac project. DemirciPRO offers a cohesive user interface
for designing an ion source, a Low-Energy Beam Transport (LEBT)
line, and, ultimately, a Radio-Frequency Quadrupole (RFQ). Each
module is capable of utilizing the output from the preceding one
along the beamline. Furthermore, it possesses the capability to
trace the trajectories of beam particles through the LEBT line using
relevant transport matrices and through the RFQ using the leap-frog
method.
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