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0 / 31 Fotos
Nobel Prize in Physics
- In 2022, the Nobel Prize recognized the work of three scientists who contributed to understanding the mysterious concept of quantum entanglement. Pictured is one of the prize winners, Alain Aspect.
© Getty Images
1 / 31 Fotos
Quantum entanglement
- Quantum entanglement has long puzzled scientists. The fascinating phenomenon means, in simple terms, that a particle of an “entangled pair” can be affected by the state of another particle, no matter the distance or what exists between them.
© Getty Images
2 / 31 Fotos
One particle tells you about the other
- The entanglement is so extensive that by measuring one thing about one particle, you can gain information about another particle. This is the case “even if they are millions of light years apart.”
© Shutterstock
3 / 31 Fotos
Spooky action at a distance
- Why is quantum entanglement such a racking subject for scientists? Well, Einstein called it “spooky action at a distance” for a reason. In fact, until the 1970s, scientists even questioned if it was real.
© Shutterstock
4 / 31 Fotos
Quantum superposition
- To explain what makes the concept peculiar, we would have to understand the concept of quantum superposition, a key concept in quantum mechanics.
© Shutterstock
5 / 31 Fotos
Multiple states at once
- Particles exist in multiple states at once, that is, until they're measured. In quantum superposition, a particle chooses “one of the states that is in the superposition.”
© Shutterstock
6 / 31 Fotos
Example
- What does this look like? Science Exchange provides a good example we can consider: Imagine a pond. We can touch two different points of the pond’s surface at the same time.
© Shutterstock
7 / 31 Fotos
Intricate pattern
- Waves would extend from each of the two points. Eventually, those waves would overlap, superpose, and form a more intricate pattern.
© Shutterstock
8 / 31 Fotos
Wave-like properties
- In quantum science, particles have mathematical, wave-like properties and they, too, become superposed. These waves are expressed as equations that provide information about a given object, such as the speed or location of an electron.
© Shutterstock
9 / 31 Fotos
Superposition
- So when an object like an electron is in superposition, all of its states can be considered possibilities of outcomes. Each possibility has a probability attributed to it.
© Shutterstock
10 / 31 Fotos
Schrödinger’s cat
- If that sounds complicated to understand, think of the famous Schrödinger’s cat experiment. A cat is put in a closed box with poison. There’s a 50% chance that the cat will die within an hour. Which means there’s a 50% chance that the cat will not die.
© Getty Images
11 / 31 Fotos
Observation determines if the cat is alive
- How does this relate to quantum superposition? After an hour, Schrödinger argued that the cat could be both dead and alive. For Schrödinger, it is the act of observation that determines if the cat is or is not alive.
© Getty Images
12 / 31 Fotos
Uncertainty
- This doesn’t mean that the cat is literally in both states, but it is the uncertainty of an object’s state that is undetermined until something is measured or verified.
© Getty Images
13 / 31 Fotos
Spinning coin
- This is like a spinning coin. While it’s spinning, it is both tails up and heads up at the same time. Similarly, particles that are spinning are both up and down, that is, until they are measured. There is a probability attached to each 'state.'
© Shutterstock
14 / 31 Fotos
Speed of light
- So what makes quantum entanglement “spooky?” As Space magazine describes, if we were to discover an alien life form that lives 10 light-years away, it would take 10 years for a message to arrive to them, and another 10 to receive their response.
© Getty Images
15 / 31 Fotos
Velocity cannot increase
- According to Einstein, the maximum speed is the speed of light. It’s not a velocity that can increase. That’s where the spooky part comes in.
© Shutterstock
16 / 31 Fotos
Defying the speed of light
- The observation of quantum entanglement means that particles exchange information instantly, no matter how far they are from each other or what exists between them, essentially defying the limitation of the speed of light.
© Shutterstock
17 / 31 Fotos
Coin flipping
- Space Magazine helps us understand this concept better by using the analogy of a coin. The probability of a coin landing on either side is generally considered 50%.
© Shutterstock
18 / 31 Fotos
Influential outcome
- Imagine two people have two coins. They are both flipping the coins, but instead of the probability being 50% each time they flip, the outcome of one of the coins influences the other.
© Shutterstock
19 / 31 Fotos
Differentiating outcome less likely
- This means that the more the two coins flip, the less likely they are to have a differentiating outcome from each other.
© Shutterstock
20 / 31 Fotos
Applying quantum entanglement to our relationships
- While the theory is in itself fascinating and a key feature of quantum science, it also offers a lens that we can use to look at our lives and relationships with others.
© Shutterstock
21 / 31 Fotos
Coincidences
- There are inexplicable, meaningful coincidences that can occur between people. Although there are no scientific experiments that can go much past speculation, it does make for an interesting reflection.
© Shutterstock
22 / 31 Fotos
Carl Jung
- Psychologist Carl Jung used the term “synchronicity” to refer to the interconnection of things that seemingly do not have a direct, causal relationship.
© Getty Images
23 / 31 Fotos
Synchronicity
- We can use the concept of quantum entanglement to think about synchronicity in our daily lives in relationships with others. For example, have you ever called a friend and when they pick up your call, they tell you they were just thinking about you?
© Shutterstock
24 / 31 Fotos
Interpersonal connections
- There are a number of studies that are investigating whether quantum entanglement can actually explain interpersonal connections; a neurological structure that engages quantum processes.
© Shutterstock
25 / 31 Fotos
Coherent experience
- This theory, while still empirically slim, argues that it is through quantum entanglement that individual neurons create a coherent experience among individuals.
© Shutterstock
26 / 31 Fotos
Speculative
- Until more research is conducted, this speculative application of quantum entanglements remains largely metaphorical, but it does offer an interesting way to think about the interconnected nature of individuals.
© Shutterstock
27 / 31 Fotos
Emotions in a mathematical framework?
- What if synchronicity, empathy, or even intuition can be explained through a mathematical framework within scientific boundaries? Although still a philosophical interpretation, quantum mechanics allows us to look at the world, our experiences, and ourselves in mysterious ways.
© Shutterstock
28 / 31 Fotos
Online dating
- In fact, researchers at the University of California’s Information Sciences Institute (ISI) are using methods derived from quantum physics to further develop algorithms for online dating sites.
© Getty Images
29 / 31 Fotos
Love is quantifiable
- These researchers believe that “love is quantifiable,” and therefore, that by identifying and sharpening particular patterns, algorithms can match compatible people using some of the characteristics of “spooky actions at a distance.” Sources: (Astronomy) (Science Exchange) (Space) (SnoQap) (Medium) (University of California’s School of Engineering) (Caltech) See also: Robots can be used to track emotions via sweat, scientists say
© Shutterstock
30 / 31 Fotos
© Getty Images
0 / 31 Fotos
Nobel Prize in Physics
- In 2022, the Nobel Prize recognized the work of three scientists who contributed to understanding the mysterious concept of quantum entanglement. Pictured is one of the prize winners, Alain Aspect.
© Getty Images
1 / 31 Fotos
Quantum entanglement
- Quantum entanglement has long puzzled scientists. The fascinating phenomenon means, in simple terms, that a particle of an “entangled pair” can be affected by the state of another particle, no matter the distance or what exists between them.
© Getty Images
2 / 31 Fotos
One particle tells you about the other
- The entanglement is so extensive that by measuring one thing about one particle, you can gain information about another particle. This is the case “even if they are millions of light years apart.”
© Shutterstock
3 / 31 Fotos
Spooky action at a distance
- Why is quantum entanglement such a racking subject for scientists? Well, Einstein called it “spooky action at a distance” for a reason. In fact, until the 1970s, scientists even questioned if it was real.
© Shutterstock
4 / 31 Fotos
Quantum superposition
- To explain what makes the concept peculiar, we would have to understand the concept of quantum superposition, a key concept in quantum mechanics.
© Shutterstock
5 / 31 Fotos
Multiple states at once
- Particles exist in multiple states at once, that is, until they're measured. In quantum superposition, a particle chooses “one of the states that is in the superposition.”
© Shutterstock
6 / 31 Fotos
Example
- What does this look like? Science Exchange provides a good example we can consider: Imagine a pond. We can touch two different points of the pond’s surface at the same time.
© Shutterstock
7 / 31 Fotos
Intricate pattern
- Waves would extend from each of the two points. Eventually, those waves would overlap, superpose, and form a more intricate pattern.
© Shutterstock
8 / 31 Fotos
Wave-like properties
- In quantum science, particles have mathematical, wave-like properties and they, too, become superposed. These waves are expressed as equations that provide information about a given object, such as the speed or location of an electron.
© Shutterstock
9 / 31 Fotos
Superposition
- So when an object like an electron is in superposition, all of its states can be considered possibilities of outcomes. Each possibility has a probability attributed to it.
© Shutterstock
10 / 31 Fotos
Schrödinger’s cat
- If that sounds complicated to understand, think of the famous Schrödinger’s cat experiment. A cat is put in a closed box with poison. There’s a 50% chance that the cat will die within an hour. Which means there’s a 50% chance that the cat will not die.
© Getty Images
11 / 31 Fotos
Observation determines if the cat is alive
- How does this relate to quantum superposition? After an hour, Schrödinger argued that the cat could be both dead and alive. For Schrödinger, it is the act of observation that determines if the cat is or is not alive.
© Getty Images
12 / 31 Fotos
Uncertainty
- This doesn’t mean that the cat is literally in both states, but it is the uncertainty of an object’s state that is undetermined until something is measured or verified.
© Getty Images
13 / 31 Fotos
Spinning coin
- This is like a spinning coin. While it’s spinning, it is both tails up and heads up at the same time. Similarly, particles that are spinning are both up and down, that is, until they are measured. There is a probability attached to each 'state.'
© Shutterstock
14 / 31 Fotos
Speed of light
- So what makes quantum entanglement “spooky?” As Space magazine describes, if we were to discover an alien life form that lives 10 light-years away, it would take 10 years for a message to arrive to them, and another 10 to receive their response.
© Getty Images
15 / 31 Fotos
Velocity cannot increase
- According to Einstein, the maximum speed is the speed of light. It’s not a velocity that can increase. That’s where the spooky part comes in.
© Shutterstock
16 / 31 Fotos
Defying the speed of light
- The observation of quantum entanglement means that particles exchange information instantly, no matter how far they are from each other or what exists between them, essentially defying the limitation of the speed of light.
© Shutterstock
17 / 31 Fotos
Coin flipping
- Space Magazine helps us understand this concept better by using the analogy of a coin. The probability of a coin landing on either side is generally considered 50%.
© Shutterstock
18 / 31 Fotos
Influential outcome
- Imagine two people have two coins. They are both flipping the coins, but instead of the probability being 50% each time they flip, the outcome of one of the coins influences the other.
© Shutterstock
19 / 31 Fotos
Differentiating outcome less likely
- This means that the more the two coins flip, the less likely they are to have a differentiating outcome from each other.
© Shutterstock
20 / 31 Fotos
Applying quantum entanglement to our relationships
- While the theory is in itself fascinating and a key feature of quantum science, it also offers a lens that we can use to look at our lives and relationships with others.
© Shutterstock
21 / 31 Fotos
Coincidences
- There are inexplicable, meaningful coincidences that can occur between people. Although there are no scientific experiments that can go much past speculation, it does make for an interesting reflection.
© Shutterstock
22 / 31 Fotos
Carl Jung
- Psychologist Carl Jung used the term “synchronicity” to refer to the interconnection of things that seemingly do not have a direct, causal relationship.
© Getty Images
23 / 31 Fotos
Synchronicity
- We can use the concept of quantum entanglement to think about synchronicity in our daily lives in relationships with others. For example, have you ever called a friend and when they pick up your call, they tell you they were just thinking about you?
© Shutterstock
24 / 31 Fotos
Interpersonal connections
- There are a number of studies that are investigating whether quantum entanglement can actually explain interpersonal connections; a neurological structure that engages quantum processes.
© Shutterstock
25 / 31 Fotos
Coherent experience
- This theory, while still empirically slim, argues that it is through quantum entanglement that individual neurons create a coherent experience among individuals.
© Shutterstock
26 / 31 Fotos
Speculative
- Until more research is conducted, this speculative application of quantum entanglements remains largely metaphorical, but it does offer an interesting way to think about the interconnected nature of individuals.
© Shutterstock
27 / 31 Fotos
Emotions in a mathematical framework?
- What if synchronicity, empathy, or even intuition can be explained through a mathematical framework within scientific boundaries? Although still a philosophical interpretation, quantum mechanics allows us to look at the world, our experiences, and ourselves in mysterious ways.
© Shutterstock
28 / 31 Fotos
Online dating
- In fact, researchers at the University of California’s Information Sciences Institute (ISI) are using methods derived from quantum physics to further develop algorithms for online dating sites.
© Getty Images
29 / 31 Fotos
Love is quantifiable
- These researchers believe that “love is quantifiable,” and therefore, that by identifying and sharpening particular patterns, algorithms can match compatible people using some of the characteristics of “spooky actions at a distance.” Sources: (Astronomy) (Science Exchange) (Space) (SnoQap) (Medium) (University of California’s School of Engineering) (Caltech) See also: Robots can be used to track emotions via sweat, scientists say
© Shutterstock
30 / 31 Fotos
Einstein's 'spooky action at a distance,' explained
The phenomenon of quantum entanglement and how it relates to human experiences
© Getty Images
Einstein's "spooky action at a distance" refers to the phenomenon of quantum entanglement. This is a concept in quantum mechanics where, regardless of the distance between two particles, two (or more) particles become linked intrinsically. Their bond is so strong that the state of one of the particles immediately affects the state of the other. This posed serious challenges for Einstein, as quantum entanglement challenges the principle of locality in relativity.
How can we use the concept of "spooky action at a distance" to think about our everyday experiences, such as our relationships with others? That's what we explore in this gallery. Click through to find out more.
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