Statements (52)
| Predicate | Object |
|---|---|
| gptkbp:instance_of |
gptkb:Accelerator
|
| gptkbp:application |
gptkb:medical_imaging
gptkb:Physics material science nuclear physics materials research nuclear reactions radiotherapy nuclear medicine ion implantation isotope production |
| gptkbp:components |
gptkb:Magneto
vacuum chamber dees radiofrequency generator |
| gptkbp:development |
inspired other accelerator designs
led to advancements in particle physics |
| gptkbp:has_limitations |
energy loss due to radiation
maximum energy limit |
| gptkbp:historical_significance |
gptkb:first_practical_particle_accelerator
|
| https://www.w3.org/2000/01/rdf-schema#label |
the cyclotron
|
| gptkbp:input_output |
high-energy particles
ion beams |
| gptkbp:invention |
gptkb:1930
gptkb:Ernest_O._Lawrence |
| gptkbp:legal_principle |
spiral path of particles
|
| gptkbp:notable_users |
universities
hospitals research institutions private companies government laboratories |
| gptkbp:operational_use |
depends on design
depends on operating conditions |
| gptkbp:power_source |
depends on magnetic field strength
up to several hundred Me V |
| gptkbp:principle_of_operation |
magnetic field and electric field
|
| gptkbp:related_devices |
gptkb:networking
linear accelerator |
| gptkbp:safety |
radiation shielding
operational protocols |
| gptkbp:size |
can be large
can be compact |
| gptkbp:trends |
increased efficiency
advanced control systems miniaturization integration with other technologies new materials for construction |
| gptkbp:type |
circular accelerator
fixed-frequency accelerator |
| gptkbp:used_for |
accelerating charged particles
|
| gptkbp:bfsParent |
gptkb:Ernest_O._Lawrence
|
| gptkbp:bfsLayer |
4
|