Patent Number: 
Section: claims

1. An acceleration system for charged nuclear particles with mass number equal or greater than 1, comprising:a rotating mechanical gantry structure;at least one radiofrequency (RF) linear accelerator configured for producing a pulsed ion beam,said accelerator comprising at least one linac section mounted on the rotating gantry structure, the accelerator configured for rotating around an axis to irradiate a target or patient from more than one direction with the produced pulsed ion beam, the produced pulsed ion beam configured for treating a patient tumor or malformation; andradio-frequency (RF) power generators located outside the rotating gantry structure and connected to the at least one linac section via rotating wave-guide devices. 2. A system for ion acceleration according to claim 1, further comprising:an ion source producing an ion beam; anda particle accelerator, configured as pre-accelerator to impart energy to particles within the ion beam, produced by the ion source, before injecting the ion beam into the at least one linac section mounted on the rotating gantry structure. 3. A system for ion acceleration according to claim 2, wherein the pre-accelerator is another linac section. 4. A system for ion acceleration according to claim 2, wherein the pre-accelerator is a cyclotron. 5. A system for ion acceleration according to claim 1, a system for ion beam delivery mounted on the rotating gantry structure. 6. A system for ion acceleration according to claim 1, wherein,the at least one linac section comprises plural linac sections, andeach linac section is configured to run at a different frequency. 7. A system for ion acceleration according to claim 1, wherein,the linac section comprises plural successive accelerating modules mounted on the rotating gantry structure, andoutput energy of the pulsed ion beam is modulated by varying an input (RF) power to each of the successive accelerating modules which constitute the linac section. 8. A system for ion acceleration according to claim 1, wherein the pulsed ion beam is made of protons. 9. A system for ion acceleration according to claim 8, wherein the pulsed ion beam further is made of carbon ions. 10. A system for ion acceleration according to claim 1, wherein the pulsed ion beam comprises 230 MeV protons. 11. A method of producing radiopharmaceuticals, comprising a step of producing a pulsed ion beam using the system of claim 1. 12. A method of providing cancer radiation therapy, comprising the step of producing a pulsed ion beam using the system of claim 1. 13. An acceleration system for charged nuclear particles with mass number equal or greater than 1, comprising:a rotating mechanical gantry structure;at least one radiofrequency (RF) linear accelerator configured for producing a pulsed ion beam,said accelerator comprising at least one linac section mounted on the rotating gantry structure, the accelerator configured for rotating around an axis to irradiate a target or patient from more than one direction with the produced pulsed ion beam, the produced pulsed ion beam configured for treating a patient tumor or malformation;an ion source configured to produce an ion beam; anda particle accelerator, configured as pre-accelerator to impart energy to particles within the ion beam, produced by the ion source, before injecting the ion beam into the linac section mounted on the rotating gantry structure,wherein at least one of i) the ion source and ii) the pre-accelerator are mounted on the rotating gantry structure. 14. A system for ion acceleration according to claim 13, further comprising radio-frequency (RF) power generators mounted on the rotating gantry structure and directly connected to the at least one linac section. 15. An acceleration system for charged nuclear particles with mass number equal or greater than 1, comprising:a rotating mechanical structure rotating around an axis; andat least one radiofrequency (RF) linear accelerator configured to produce a pulse ion beam,said at least one radiofrequency (RF) linear accelerator comprising at least one linac section mounted on the rotating mechanical structure, the accelerator configured to irradiate a target or patient from more than one direction with the produced pulsed ion beam, the produced ion beam configured for treating a patient tumor or malformation; anda particle accelerator, configured as pre-accelerator and arranged to impart energy to particles within an ion beam before injecting the ion beam into the linac section, wherein the the pre-accelerator is one of i) a cyclotron, and ii) a Fixed Field Alternating Gradient(FFAG) accelerator. 16. A system for ion acceleration according to claim 15, wherein the pre-accelerator is a cyclotron. 17. A system for ion acceleration according to claim 15, wherein the pre-accelerator is a FFAG accelerator.