Scientists have activated the smallest particle accelerator ever built, roughly the size of a coin, paving the way for portable, cost-effective accelerators with exciting applications in medicine and physics.
Traditional particle accelerators use large metal structures and radio-frequency waves, limiting size and increasing costs.
A new approach involves dielectric materials with stronger optical fields, allowing higher acceleration rates in smaller spaces.
The dielectric laser accelerator (DLA) achieves 100 times higher acceleration rates using nanophotonic structures.
The nanophotonic device is 54 million times smaller than current particle accelerators, confining particles within a narrow channel for efficient acceleration.
Researchers successfully demonstrated the nanophotonic electron accelerator by increasing electron energy from 28.4 keV to 40.7 keV.
The miniature accelerator relies on laser beams to accelerate particles and has potential applications in precise radiotherapy for cancer treatment.
The NEA's success marks a milestone in accelerator physics, offering new possibilities in medical treatment and scientific research.
Miniaturized accelerators could revolutionize fields like medicine, materials science, and electronics by enabling advanced imaging and nanoscale matter studies.
As technology advances, nanophotonic accelerators will continue to reshape scientific and medical fields, emphasizing the trend toward smaller, more accessible high-energy machines.