A compact synchrotron is now under development at the Nation-al Institutes for Quantum Science and Technology (QST), with the goal of downsizing the heavy-ion therapy system with super-conducting magnets conduction-cooled by GM cryocoolers. The synchrotron is required to accelerate several kinds of heavy-ion beams from 4 MeV/u to 430 MeV/u. A superconducting magnet with both dipole and quadrupole coils is adopted to generate a dipole field from 0.3 to 3.5 T and a quadrupole field from 0.1 to 1.5 T/m with a ramp rate of 0.6 T/s. A coil winding pattern and iron yoke are optimized to achieve field homogeneity in the re-quired area. For the small-scale synchrotron, the coil ends are op-timized with a novel parameter combining the beta function ...
The present paper describes the development process of a low critical temperature superconducting ma...
A new design is presented for a superconducting-coil-based compact cyclotron, which has many practic...
The Heavy Ion Fusion program is developing single aperture superconducting quadrupoles based on NbTi...
A project to develop a compact heavy ion therapy device has been initiated at the National Institute...
Heavy-ion radiotherapy requires a high installation cost and a large area to construct its facility ...
The concept for the new GSI accelerator facilities is based on a large synchrotron designed for oper...
Next generation ion therapy magnets both for gantry and for accelerator (synchrotron) are under inve...
Next generation ion therapy magnets both for gantry and for accelerator (synchrotron) are under inve...
Next generation ion therapy magnets both for gantry and for accelerator (synchrotron) are under inve...
Combined-function superconducting magnets are designed for a heavy-ion rotating-gantry. Superconduct...
Heavy-ion radiotherapy has a high curative effect in cancer treatment and also can reduce the burden...
Combined-function superconducting magnets are designed for a heavy-ion rotating-gantry. Superconduct...
An isocentric superconducting rotating-gantry for heavy-ion therapy is being developed. This rotatin...
Pulse dipole and quadrupole magenets are being developed for the compact proton synchrotron dedicate...
The superconducting magnet technology has been utilized for large-scale, high-power magnet applicati...
The present paper describes the development process of a low critical temperature superconducting ma...
A new design is presented for a superconducting-coil-based compact cyclotron, which has many practic...
The Heavy Ion Fusion program is developing single aperture superconducting quadrupoles based on NbTi...
A project to develop a compact heavy ion therapy device has been initiated at the National Institute...
Heavy-ion radiotherapy requires a high installation cost and a large area to construct its facility ...
The concept for the new GSI accelerator facilities is based on a large synchrotron designed for oper...
Next generation ion therapy magnets both for gantry and for accelerator (synchrotron) are under inve...
Next generation ion therapy magnets both for gantry and for accelerator (synchrotron) are under inve...
Next generation ion therapy magnets both for gantry and for accelerator (synchrotron) are under inve...
Combined-function superconducting magnets are designed for a heavy-ion rotating-gantry. Superconduct...
Heavy-ion radiotherapy has a high curative effect in cancer treatment and also can reduce the burden...
Combined-function superconducting magnets are designed for a heavy-ion rotating-gantry. Superconduct...
An isocentric superconducting rotating-gantry for heavy-ion therapy is being developed. This rotatin...
Pulse dipole and quadrupole magenets are being developed for the compact proton synchrotron dedicate...
The superconducting magnet technology has been utilized for large-scale, high-power magnet applicati...
The present paper describes the development process of a low critical temperature superconducting ma...
A new design is presented for a superconducting-coil-based compact cyclotron, which has many practic...
The Heavy Ion Fusion program is developing single aperture superconducting quadrupoles based on NbTi...