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What is quantum physics? Quantum physics, also known as quantum mechanics, studies how matter and energy behave at the smallest scale… think atoms and subatomic particles, unlike everyday objects which follow classical physics principles. In the quantum world, unseen particles behave in strange and unpredictable ways. For example, unseen particles can exist in multiple places at once and become linked with other particles across vast distances.

The quantum field revolutionized our understanding of reality and led to technologies like lasers, semiconductors, and quantum computers. But at its heart, quantum physics asks questions about the very nature of existence, how unseen particles behave, how these particles interact, and how reality itself is constructed at the smallest level we know of.

Before diving into the quantum world, it’s helpful to understand classical physics… think Newton’s laws, such as gravity, and the simple energy concepts of classical physics, which works well for large objects like cars, planets, or baseballs. It explains why a ball thrown follows A predictable path or why planets orbit the sun.

However, classical physics hits limits when applied to tiny unseen particles. For instance, it cannot explain why phenomena like blackbody radiation or the photoelectric effect. Recognizing these limits paves the way for the development of quantum theory.

A historical study of quantum technology involved using more than 66,000 papers on quantum theory from 1980 until 2020. These papers were observed to identify their historical roots and the interrelationship of published papers to determine their distinctiveness. The most influential papers were used to deduce Common Core in all areas of quantum study.

These papers introduced a second quantum technological revolution, or quantum technology 2.0, starting around 1980 with the control of a single quantum particle and it’s interaction on an individual basis.

These particles are known as qubits, short for quantum bit, and are the basic unit of information in quantum computing. While a standard computer bit can only be 0 or 1 at any given time, a qubit can exist in a combination of both states simultaneously.

Quantum computing 2.0 exploits concepts such as superposition and the entanglement of quantum states. The problems scientists face in such areas are as molecular modeling, would take billions of years for even the fastest classical supercomputers to calculate. Quantum computers, however, use “qubits” to leverage quantum properties like superposition and entanglement to solve problems efficiently. To function, these quantum computers must be cooled to near absolute 0, making them some of the coldest places in the universe.

Why are quantum computers important? Quantum computers could revolutionize the fields of medicine, materials science, and climate solutions by handling complex data problems that classical computers cannot.

Education about quantum science will help people understand more about the word “quantum” and how it is used now and, in the future, encourage people to discover their own quote UN quote superpowers and embrace a scientific mindset that will help solve the world’s future problems.

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