The end of the first season of Radio Psiket podcast

01

Episode 1Season 1

The end of the first season of Radio Psiket podcast

SelectedEpisode 1Season 1

The end of the first season of Radio Psiket podcast

In this 12-part Radio Psiket podcast series, we embark on an exploratory journey into the world of quantum physics, featuring biographies of pioneering quantum scientists such as Max Planck, Albert Einstein, Niels Bohr and many others who have changed our understanding of the fundamental nature of reality. . As a result of the mathematical demonstration and mental experiments that the geniuses of physics presented in the 20th century; It created an entirely new perspective that replaced the reality we knew of the universe with uncertainty, chaos, and a ghostly connection that could extend across the cosmos.

02

Episode 2Season 1

Quantum Joker

Episode 2Season 1

Quantum Joker

After World War II, I was very worried about the atomic bomb. I did not know what would happen in the future, such a consequence of science would obviously cause destruction and cause the destruction of humans. So the question was, is there some kind of Satan involved in science?

Richard Feynman’s life was a remarkable journey through the worlds of physics, academia, and popular culture, leaving a lasting mark on each of them.

With his unique combination of enthusiasm, charisma, and relentless curiosity, Feynman moved far beyond the traditional boundaries of academia. He became not only an extraordinary physicist, but also an influential teacher, a gifted storyteller, and a cultural icon.

In this episode, we explore the many dimensions of his life and take a closer look at the different layers of his remarkable genius.

In 2005, the United States Postal Service issued a commemorative stamp honoring Richard Feynman, alongside three other American scientists. Printed on Feynman’s stamp were the strange, looping diagrams that now bear his name. At first, few people knew what to make of them. Today, Feynman diagrams have become a universal visual language for representing particle interactions in modern physics.

Join us as we explore the life, ideas, and enduring legacy of one of the most brilliant minds of the twentieth century.

After World War II, I was very worried about the atomic bomb. I did not know what would happen in the future, such a consequence of science would obviously cause destruction and cause the destruction of humans. So the question was, is there some kind of Satan involved in science?

Richard Feynman’s life was a remarkable journey through the worlds of physics, academia, and popular culture, leaving a lasting mark on each of them.

With his unique combination of enthusiasm, charisma, and relentless curiosity, Feynman moved far beyond the traditional boundaries of academia. He became not only an extraordinary physicist, but also an influential teacher, a gifted storyteller, and a cultural icon.

In this episode, we explore the many dimensions of his life and take a closer look at the different layers of his remarkable genius.

In 2005, the United States Postal Service issued a commemorative stamp honoring Richard Feynman, alongside three other American scientists. Printed on Feynman’s stamp were the strange, looping diagrams that now bear his name. At first, few people knew what to make of them. Today, Feynman diagrams have become a universal visual language for representing particle interactions in modern physics.

Join us as we explore the life, ideas, and enduring legacy of one of the most brilliant minds of the twentieth century.

03

Episode 3Season 1

Parallel universe and dream mind

Episode 3Season 1

Parallel universe and dream mind

This is the tenth episode of the first season of Radio Psiket. In previous installments, we said that from dead or alive cats to nightmarish actions at a distance, quantum physics delights in destroying our direct intuitions about how the world works. Physicists try to answer the challenging questions of this theory with the help of philosophical interpretations consistent with experience about what exists at the fundamental levels of quantum theory. There are few theories in science that have different ways of looking at it, but why do we have this? In this part, we will discuss one of the challenging interpretations of quantum mechanics called parallel universes.

04

Episode 4Season 1

positional failure

Episode 4Season 1

positional failure

In 1964, a groundbreaking theorem was presented that opened the way to unravel the deep and confusing connections between entangled particles and profoundly challenged the classical notions of local realism.

In this episode, we explore Bell’s inequality, a result that has been described as one of the most profound scientific discoveries of the second half of the twentieth century.

Bell’s theorem—and the experiments inspired by it—turned what had once seemed like a purely philosophical question into something that could be tested in the laboratory. We now know that the strange quantum correlations Einstein famously referred to as “spooky action at a distance,” and which we now associate with quantum entanglement, are a genuine feature of nature.

Bell’s work transformed the way physicists think about the foundations of quantum mechanics and sparked a renewed wave of interest in some of the deepest questions at the heart of quantum theory.

In 1964, a groundbreaking theorem was presented that opened the way to unravel the deep and confusing connections between entangled particles and profoundly challenged the classical notions of local realism.

In this episode, we explore Bell’s inequality, a result that has been described as one of the most profound scientific discoveries of the second half of the twentieth century.

Bell’s theorem—and the experiments inspired by it—turned what had once seemed like a purely philosophical question into something that could be tested in the laboratory. We now know that the strange quantum correlations Einstein famously referred to as “spooky action at a distance,” and which we now associate with quantum entanglement, are a genuine feature of nature.

Bell’s work transformed the way physicists think about the foundations of quantum mechanics and sparked a renewed wave of interest in some of the deepest questions at the heart of quantum theory.

05

Episode 5Season 1

silent genius

Episode 5Season 1

silent genius

Mathematical compatibility was more important to him than its compatibility with empirical reality. He said one day

I don't care if a theory matches reality or not. Because I don't know what reality is and I don't care about it either. I value the mathematical beauty of the theory.

In this episode, we turn to one of the most influential and brilliant physicists of the twentieth century: Paul Dirac.

Dirac became one of the central figures in the development of quantum mechanics, making extraordinary contributions that helped shape the theory into the form we know today. His mathematical formulation of quantum theory, including what is now known as Dirac notation or bra–ket notation, became an essential language for describing quantum states and calculating physical probabilities.

Dirac also made groundbreaking contributions to quantum field theory, and his prediction of the existence of antimatter transformed our understanding of the subatomic world.

His elegant mathematical formalism, remarkable physical intuition, and deep insights continue to influence and inspire physicists working in quantum science today.

Mathematical compatibility was more important to him than its compatibility with empirical reality. He said one day

I don't care if a theory matches reality or not. Because I don't know what reality is and I don't care about it either. I value the mathematical beauty of the theory.

In this episode, we turn to one of the most influential and brilliant physicists of the twentieth century: Paul Dirac.

Dirac became one of the central figures in the development of quantum mechanics, making extraordinary contributions that helped shape the theory into the form we know today. His mathematical formulation of quantum theory, including what is now known as Dirac notation or bra–ket notation, became an essential language for describing quantum states and calculating physical probabilities.

Dirac also made groundbreaking contributions to quantum field theory, and his prediction of the existence of antimatter transformed our understanding of the subatomic world.

His elegant mathematical formalism, remarkable physical intuition, and deep insights continue to influence and inspire physicists working in quantum science today.

06

Episode 6Season 1

Does God roll dice?

Episode 6Season 1

Does God roll dice?

American physicist Robert Oppenheimer once said: "Princeton is a madhouse, and Einstein is a madman."

In this episode of Radio Psiket, we explore a remarkably simple yet powerful thought experiment proposed by Albert Einstein, Boris Podolsky, and Nathan Rosen—an argument that later became known as the Einstein–Podolsky–Rosen paradox, or the EPR paradox.

Their famous 1935 paper was intended to challenge Niels Bohr’s Copenhagen interpretation of quantum mechanics. Using a carefully constructed thought experiment, Einstein, Podolsky, and Rosen argued that quantum mechanics might not provide a complete description of physical reality. Their paper became one of the most important and influential challenges ever raised against quantum theory.

At the heart of the EPR argument are two particles prepared in what we now call an entangled state. Their properties are correlated in such a way that measuring one particle allows us to predict the corresponding property of the other, even when the two particles are separated by a great distance. This strange connection raised profound questions about locality, reality, and the completeness of quantum mechanics.

The debate triggered by the EPR paper was so fundamental that, according to one often-cited account, Paul Dirac remarked: “Now we have to start all over again, because Einstein has proved that quantum mechanics does not work.”

American physicist Robert Oppenheimer once said: "Princeton is a madhouse, and Einstein is a madman."

In this episode of Radio Psiket, we explore a remarkably simple yet powerful thought experiment proposed by Albert Einstein, Boris Podolsky, and Nathan Rosen—an argument that later became known as the Einstein–Podolsky–Rosen paradox, or the EPR paradox.

Their famous 1935 paper was intended to challenge Niels Bohr’s Copenhagen interpretation of quantum mechanics. Using a carefully constructed thought experiment, Einstein, Podolsky, and Rosen argued that quantum mechanics might not provide a complete description of physical reality. Their paper became one of the most important and influential challenges ever raised against quantum theory.

At the heart of the EPR argument are two particles prepared in what we now call an entangled state. Their properties are correlated in such a way that measuring one particle allows us to predict the corresponding property of the other, even when the two particles are separated by a great distance. This strange connection raised profound questions about locality, reality, and the completeness of quantum mechanics.

The debate triggered by the EPR paper was so fundamental that, according to one often-cited account, Paul Dirac remarked: “Now we have to start all over again, because Einstein has proved that quantum mechanics does not work.”

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The end of the first season of Radio Psiket podcast

Episodes in this playlist

The end of the first season of Radio Psiket podcast

The end of the first season of Radio Psiket podcast

Quantum Joker

Quantum Joker

Parallel universe and dream mind

Parallel universe and dream mind

positional failure

positional failure

silent genius

silent genius

Does God roll dice?

Does God roll dice?

sessin two

sessin-three

sessin four

Session five