Mainly used for solid state physics and applied physics experiments.
Electrostatic accelerator, Van de Graaff type.
Single stage-Belt charging system.
Maximum terminal working voltage 2.5 MV.

Available accelerated ions: ¹H, ⁴He single charged
Continuous beam.

Maximum Ion Energy: 2.5 MeV

1 experimental hall; 5 beam lines among which one dedicated to a microbeam facility.

Mainly used for interdisciplinary research, neutron physics research and advanced educational purposes.

Electrostatic accelerator, Van de Graaff type.

Single stage-Belt charging system.

Maximum terminal working voltage: 7 MV.

Available accelerated ions: 

     ^1,2H, ³He, ⁴He single and double charged

     D, ¹⁵N double charged

Continuous and pulsed beam.

Maximum Ion Energy:

     7 MeV for single charged

     14 MeV for ⁴He⁺⁺

     8 MeV for ¹⁵N⁺⁺

1 experimental hall; 7 beam lines.

Mainly used for fundamental heavy-ions nuclear physics experiments.
Electrostatic accelerator, Van de Graaff type.
Double stage with two stripper stations (one at the terminal and one in the High Energy stage) - Laddertron charging system.

Maximum working voltage: 15 MV.

Available accelerated ions range from ¹H to ¹⁹⁷Au (see list with available currents). 

Continuous and pulsed beam.

Energy:from 30 MeV/AMU for 1H to about 1.5 MeV/AMU for 197Au.

3 experimental halls; 10 beam lines.

At present the Tandem-XTU acts also as injector for ALPI.

Mainly used for fundamental heavy-ions nuclear physics experiments at intermediate energy.
Linear superconducting quarter-wave resonant cavities accelerator. At present ions are injected by Tandem

Superconducting material: Lead and Niobium.

Accelerated Ions: from ²⁸Si to ¹⁹⁷Au.

Energy: about 20 MV multiplied the ion charge state.

The total output energy of ions emerging from the Tandem-Alpi complex is the sum of injection energy (Tandem acting as injector) and ALPI energy. Hence the total energy of the complex is about 35 x charge state (MeV).

Experimental halls and beam lines: the same ones of Tandem-XTU.