The existence of the Higgs boson, commonly known as the “God particle,” was initially theorized in 1964 and later confirmed using the Large Hadron Collider in 2012. The finding of this particle was praised in the media as a major advancement in the field of particle physics. The presence of the Higgs boson assists in clarifying the age-old enigma of how elementary particles gain mass. Moreover, certain scientists have suggested that finding this particle may provide backing for the concept of cosmic inflation, a crucial aspect of the Big Bang theory. Is this actually the case?
A Brief Introduction to Particle Physics
Physics teaches us that atoms are made up of a nucleus containing protons and neutrons, surrounded by electrons. We also know about quarks, which make up protons and neutrons and that photons play a role in facilitating electromagnetic connections. The realm of elementary particles is, however, much more intricate than it may seem, and it would be beneficial to provide a brief explanation of these complexities before delving into the specifics of the Higgs boson.
The Standard Model
In the field of physics, there exists a concept known as the Standard Model of fundamental particles. It explains the basic building blocks of matter and how they interact with each other. The most basic particles are classified into two primary groups:
- Fermions (with half-integer spin1, most commonly expressed as 1/2),
- Bosons (with integer spin, most commonly expressed as 0 or 1).
1. Fermions
Fermions are, broadly speaking, particles of matter (and antimatter). They are divided into:
- quarks (and antiquarks),
- leptons (and antileptons).
Quarks are elementary particles that are confined by strong interactions. There are six types of quarks: up “u,” down “d,” charm “c,” strange “s,” top “t,” and bottom “b”.2 Each quark has a corresponding antiquark.
Quarks combine to form hadrons, which can be divided into several categories. One of these is baryons (composed of three quarks), which are further divided into nucleons and hyperons. Nucleons (particles made only of “u” and “d” quarks) include the well-known protons (“uud”) and neutrons (“udd”). Hyperons contain at least one strange quark marked as “s.” In addition to baryons, there are also unstable mesons, composed of quark-antiquark pairs, which, due to their spin, are classified as bosons.
Leptons are elementary particles that undergo weak interactions when interacting with hadrons. There are six types of leptons: the electron and electron neutrino, the muon and muon neutrino, and the tau and tau neutrino. Each lepton has a corresponding antilepton (e.g., the positron is the counterpart of the electron).
2. Bosons
Bosons are particles that interact with the aforementioned fermions (matter particles). There are four fundamental forces: strong, electromagnetic, weak, and gravitational.3 The Standard Model describes only the first three forces, excluding gravity. Each of these interactions is mediated by specific bosons. They are divided into:
- Gauge bosons (interaction carriers):
- photon – responsible for electromagnetic interactions,
- gluon – responsible for strong interactions,
- W+, W-, and Z bosons – responsible for weak interactions,
- graviton – a hypothetical particle (yet to be discovered) that would be responsible for gravity,
- scalar bosons (colloquially called scalars4):
- Higgs boson (Higgson, discovered in 2012).
Due to their integer spin, mesons (quark-antiquark pairs) are also classified as bosons, as previously mentioned.
What is the Higgs Boson?
Initially, scientists sought to understand the occurrence of spontaneous symmetry breaking in electroweak interactions, resulting in the divergence of electromagnetic and weak forces during the early stages of the universe.5 This process was expected to produce weak interaction bosons (which have mass) and photons (which are massless).
This raised another question: how do massless elementary particles acquire mass? Peter Higgs and others proposed that all elementary particles with mass (only photons and gluons are massless) gain it through interactions with quantum fields through an additional scalar field. This process is called the Higgs mechanism. The Higgs field is believed to exist in a vacuum, and its carrier would be a special scalar boson, known as the Higgs boson or the “God particle”.6
The theory was formulated in 1964. However, the particle was experimentally detected only on July 4, 2012, by the Large Hadron Collider at CERN in Switzerland.7 In 2013, Peter Higgs and his colleague François Englert received the Nobel Prize in Physics for predicting the particle responsible for the mass of other elementary particles.
Why Is It Called the “God Particle”?
Mass is the gravitational force that keeps the universe together, impacting phenomena like gravity. Hence, the elementary particle responsible for regulating the mass of other particles was famously labeled as “the God particle.” Physicist Leon Lederman, along with Dick Teresi, coined the term and wrote a book in 1993 titled The God Particle.8 This term, however, sparked controversy among physicists, many of whom are atheists, including Peter Higgs himself (Lederman now claims it was a joke9). Nevertheless, the Higgs boson is still commonly referred to as “the God particle.”
Confirmation of the Big Bang?
While the particle is not directly related to God. it nonetheless has a strong connection to creation. Scientists think that the Higgs boson not only clarifies the source of mass, but also supports the idea of inflation, an event believed to have happened right after the Big Bang 13.8 billion years ago, indirectly affirming the Big Bang theory.10
Not all scientists accept the Big Bang theory and the theory of inflation. Dr. Danny R. Faulkner commented, “This is an exaggeration because [the Higgs boson] doesn’t say anything about the Big Bang itself. The research concerns what exists here and now, and we are comfortable exploring how the world exists and works.” Similarly, Jason Lisle from the Institute for Creation Research stated, “It is a confusion of two problems. The Big Bang theory is merely a conjecture about the past, about how the universe might have arisen from nothing. And the Higgs boson has nothing to do with that”.11
Does the “God Particle” Confirm God’s Existence?
Atheists might claim that since the so-called “God particle” explains the origins of the universe without the need for a Creator, God does not need to exist.12 Meanwhile, it might actually be the opposite. Jason Lisle commented: “The Higgs boson explains how the universe operates today. It looks like the mechanism God chose to assign different masses to particles”.13
In short, without the Higgs field and bosons, no matter would exist, and without matter, neither would our world or any of us. Therefore, what some see as evidence against the need for God’s existence could just as well be seen as compelling proof of a perfectly designed universe by an intelligent Creator.
By the way, we recommend reading the articles:
- Scientists and Philosophers Who Found Faith in God
- Unicorns in the Bible – Myth or Reality?
- What Happened to the Waters Above the Firmament?
- Earth’s Axial Precession in Ancient Thought
- Human Races: A Scientific Perspective
Footnotes
- Spin – the intrinsic angular momentum of a particle in a system where it performs no translational movement (e.g., forward motion). It can be imagined as the rotation of the particle (visualized as a small sphere) around its own axis, but in the context of quantum mechanics, this is a significant simplification.
- The letter designations of quarks come from their English names: up, down, charm, strange, top, and bottom.
- The Standard Model does not describe gravity. The reason behind this is that when scientists attempt to merge Einstein’s general theory of relativity and the modern theory of gravity with quantum mechanics, contradictions arise. Therefore, researchers are searching for a so-called “theory of everything” that would unify all four fundamental forces.
- A scalar particle is a particle that can be described by a scalar, which is a single real number representing some physical quantity characteristic of the particle. In the case of the Higgs boson, this physical quantity is mass.
- Mason, J., 2012. Has the ‘God Particle’ Been Found? Creation Ministries International, [online] Available at: https://creation.com/higgs-boson-god-particle
- Bozon Higgsa – i co dalej?, (Chip, 17.07.2021) https://www.chip.pl/2021/07/bozon-higgsa-i-co-dalej/.
- Ibid.
- Lederman, L. and Teresi, D., 1993. Boska cząstka: jeśli Wszechświat jest odpowiedzią, jak brzmi pytanie? Prószyński and S-ka.
- E Peralta, ‘The Man Who Coined “The God Particle” Explains: It Was A Joke!’ (NPR, 15 March 2013) https://www.npr.org/sections/thetwo-way/2013/03/15/174440162/the-man-who-coined-the-god-particle-explains-it-was-a-joke?t=1632414535879.
- Spencer, W., 2012. The God Particle and the God of Particles. Answers in Genesis, [online] Available at: https://answersingenesis.org/physics/higgs-boson-god-particle/the-god-particle-and-the-god-of-particles/.
- Mitchell, E., 2013. Higgs Boson Not God Particle, Still Incredible. Answers in Genesis, [online] Available at: https://answersingenesis.org/physics/higgs-boson-god-particle/higgs-boson-not-god-particle-still-incredible/.
- Answers in Genesis, ‘The Matter of Mass—Making Sense of the “God Particle”‘ (Answers in Genesis, 5 July 2012) https://answersingenesis.org/physics/higgs-boson-god-particle/the-matter-of-massmaking-sense-of-the-god-particle/.
- Mitchell, E., op. cit.
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