From left to right: Professor John Collier (Director Central Laser Facility), Sir Ian Chapman (CEO of UKRI), Professor Dame Angela McLean (Government Chief Scientific Adviser), Professor Andrew Randewich (Executive director Science AWE Nuclear Security Technologies) Image credit: STFC
The Central Laser Facility (CLF) was awarded £85 million by UK Research and Innovation for this major upgrade programme. This week has seen a ground-breaking event and work commence on the substructure of the building.
The CLF, part of the Science and Technology Facilities Council’s Rutherford Appleton Laboratory campus in south Oxfordshire, uses a suite of lasers to create the fourth state of matter (in addition to solid, liquid, and gas) known as plasma. The CLF team carries out research using these lasers to investigate a broad range of science areas, spanning physics, chemistry and biology.
Vulcan 20-20 upgrade
The most powerful laser at CLF had been the Vulcan laser, which had a wide range of uses, predominantly in plasma physics. The upgraded Vulcan 20-20 laser will be 100 times brighter than its predecessor, and a million, billion, billion times brighter than the Sahara Desert’s brightest sunlight.
The Vulcan 20-20 laser is so named because it will generate a main laser beam with an energy output of 20 petawatts (PW) alongside 8 high energy beams with an output of up to 20 kilojoules (kJ). This is a 20-fold increase in power which is expected to make it one of the most powerful lasers in the world.
Speaking at the official ground breaking ceremony this week Professor John Collier, Director of CLF, said:
“Vulcan has been the flagship laser at CLF for many years and widely recognised internationally as a pioneering research facility.
This major upgrade of Vulcan will help secure UK leadership in High Energy Density Science as well as offering UK industry and researchers access to advanced technology development to aid UK growth.”
Vulcan 20-20 will also support the search for clean energy via the science of laser driven fusion. This upgrade will soon be ready to serve a new generation of scientists, ensuring the UK retains its leadership role in this field.
Pushing scientific boundaries
Planned experiments include creating matter-antimatter pairs using strong electromagnetic fields, usually only found in space, and studying a new particle acceleration method for potential ion radiotherapy treatments to treat cancer.
