There’s not much on the Large Hadron Collider (LHC) calendar this year. Most of it is green. According to the colour key, that indicates a “technical stop”: in February, the LHC will shut down for an 18-month upgrade. Before that, there’s a bit of yellow (“protonion set-up”) and a gold block that starts the week after – the “proton-ion run”. The few other events marked come from another world: Good Friday, Easter Monday, Ascension Day, Whitsun and Christmas.
The World Health Organisation (WHO) also has a to-do list and this one can’t ignore religion, either. One of the WHO’s aims is to make Africa polio-free (Nigeria is the only state on the continent where the disease still lurks). Another is to continue its immunisation programmes in Afghanistan and Pakistan. At least one of those goals is up the creek. In Pakistan, the immunisation programme has been suspended – just before Christmas, nine health workers carrying out the vaccinations were shot dead.
The shootings are believed to be the work of those who believe that the vaccination programme is a western plot to sterilise Muslim children. It sounds ludicrous but it’s a popular conspiracy theory; the claim has left Nigerian children as the only Africans still fully exposed to the debilitating virus.
There is growing concern in the Muslim world that western science is encroaching on religious territory and this anxiety has some basis in reality. While health workers in Pakistan debate whether to risk their lives, the scientists at Cern will use proton-ion collisions to probe the Creation story. The result of these collisions will be a quark-gluon plasma.
Smash apart the protons at the centre of atoms and you will find that they’re composed of particles called quarks, held together by other particles called gluons. Seeing this stuff requires a lot of energy: the quark-gluon plasma exists only at temperatures of a few trillion degrees. Researchers first created one on earth about a decade ago and it demonstrated some extraordinary properties that are well worth revisiting. For instance, the primordial soup of particles has so much energy and such strong interactions that it pulls new particles out of the empty space in which it resides. In effect, it creates something from nothing.
The only previous time a quark-gluon plasma appeared in the universe was a microsecond after the Big Bang, when the universe was the size of a small town. As things cooled down, the quarks, the gluons and the electrons congealed into hydrogen atoms. Eventually, everything else formed: stars, galaxies, bigger atoms, planets and people.
In the 200,000 years since they first appeared on earth, those people have demonstrated persistent curiosity, with interesting consequences. Questions about their origin led them to form religions. That led to rituals and festivities, creating well-bonded communities that valued co-operation, which gave rise to what we call civilisation, which in turn birthed science – another way to satisfy that human curiosity.
Science provided a way for people to agree on answers to what the world and the universe are made of, how it all works and where it all might have come from. The co-operative side of human nature, meanwhile, has caused nations to work together on things such as re-creating the moment of Creation (religious festivals permitting) and establishing international vaccination programmes to alleviate suffering. All we have to do now is work out how the two might coexist without people getting shot.