serp777 said:Lets say you have a particle A, which then physically interacts with particle C and B to become entangled. Since A is entangled with B, and C is entangled with A, then it would follow that c is entangled to B. I guess my main question is it possible to have multiple systems entangled with each other simultaneously, or does it have to be binary? And my next question is if its possible, then is C technically entangled to B, even though they are entangled through A?
You can't have entanglement between A/B and A/C at the same time. You can have so called GHZ state but it gives less "entanglement per photon" figuratively speaking. Basically you detect one of the three photons and then from that result you can find out what type of correlation you should expect for other two photons.serp777 said:Lets say you have a particle A, which then physically interacts with particle C and B to become entangled. Since A is entangled with B, and C is entangled with A, then it would follow that c is entangled to B. I guess my main question is it possible to have multiple systems entangled with each other simultaneously, or does it have to be binary? And my next question is if its possible, then is C technically entangled to B, even though they are entangled through A?
serp777 said:Lets say you have a particle A, which then physically interacts with particle C and B to become entangled. Since A is entangled with B, and C is entangled with A, then it would follow that c is entangled to B. I guess my main question is it possible to have multiple systems entangled with each other simultaneously, or does it have to be binary? And my next question is if its possible, then is C technically entangled to B, even though they are entangled through A?
Multiple quantum entanglement is a phenomenon in quantum physics where two or more particles become connected in such a way that the state of one particle affects the state of the other particles, regardless of distance. This means that the particles are intrinsically linked and share information instantaneously, even if they are light years apart.
Single quantum entanglement involves two particles that are entangled, while multiple quantum entanglement involves three or more particles that are entangled. In multiple quantum entanglement, each particle is connected to every other particle, creating a more complex and interconnected system.
Multiple quantum entanglement has the potential to revolutionize fields such as quantum computing, cryptography, and communication. It could also lead to advancements in teleportation and super-sensitive sensors.
Multiple quantum entanglement is created by manipulating the quantum states of particles through various techniques, such as using lasers or magnetic fields. It is observed through the measurement of correlated properties of the entangled particles, such as spin or position.
One of the main challenges in studying multiple quantum entanglement is maintaining the entanglement over long distances or periods of time. Additionally, the delicate nature of quantum systems makes it difficult to observe and control multiple entangled particles without disrupting their entanglement.