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Resized the circuit image to reasonable dimensions
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Ohad
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Suppose I want to perform the time-evolution simulation on the following Hamiltonians:

$$ H_{1} = X_1+ Y_2 + Z_1\otimes Z_2 \\ H_{2} = X_1\otimes Y_2 + Z_1\otimes Z_2 $$

Where $X,Y,Z$ are Pauli matrices. Since $[X_1,Y_2] = 0$, I can simultaneously perform the time evolution simulation of $X_1$ and $Y_2$. Thus, it seems like both Hamiltonians could be simulated using the following circuit ($\pi$ is just a random number):

Enter image description here

Is this circuit looks right? If so, how can I tell the difference between these two Hamiltonians just by looking at the circuit?

Suppose I want to perform the time-evolution simulation on the following Hamiltonians:

$$ H_{1} = X_1+ Y_2 + Z_1\otimes Z_2 \\ H_{2} = X_1\otimes Y_2 + Z_1\otimes Z_2 $$

Where $X,Y,Z$ are Pauli matrices. Since $[X_1,Y_2] = 0$, I can simultaneously perform the time evolution simulation of $X_1$ and $Y_2$. Thus, it seems like both Hamiltonians could be simulated using the following circuit ($\pi$ is just a random number):

Enter image description here

Is this circuit looks right? If so, how can I tell the difference between these two Hamiltonians just by looking at the circuit?

Suppose I want to perform the time-evolution simulation on the following Hamiltonians:

$$ H_{1} = X_1+ Y_2 + Z_1\otimes Z_2 \\ H_{2} = X_1\otimes Y_2 + Z_1\otimes Z_2 $$

Where $X,Y,Z$ are Pauli matrices. Since $[X_1,Y_2] = 0$, I can simultaneously perform the time evolution simulation of $X_1$ and $Y_2$. Thus, it seems like both Hamiltonians could be simulated using the following circuit ($\pi$ is just a random number):

Is this circuit looks right? If so, how can I tell the difference between these two Hamiltonians just by looking at the circuit?

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glS
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Fixed the question formation - missing auxiliary (or helping) verb - see e.g. <https://www.youtube.com/watch?v=t4yWEt0OSpg&t=1m49s> (see also <https://www.youtube.com/watch?v=kS5NfSzXfrI> (QUASM)).
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How tocan I simulate Hamiltonians composed of Pauli matrices?

Suppose I want to perform the time-evolution simulation on the following Hamiltonians:

$$ H_{1} = X_1+ Y_2 + Z_1\otimes Z_2 \\ H_{2} = X_1\otimes Y_2 + Z_1\otimes Z_2 $$

Where $X,Y,Z$ are Pauli matrices. Since $[X_1,Y_2] = 0$, I can simultaneously perform the time evolution simulation of $X_1$ and $Y_2$. Thus, it seems like both Hamiltonians could be simulated using the following circuit ($\pi$ is just a random number):

enter image description hereEnter image description here

Is this circuit looks right? If so, how can I tell the difference between these two Hamiltonians justjust by looking at the circuit?

How to simulate Hamiltonians composed of Pauli matrices?

Suppose I want to perform the time-evolution simulation on the following Hamiltonians:

$$ H_{1} = X_1+ Y_2 + Z_1\otimes Z_2 \\ H_{2} = X_1\otimes Y_2 + Z_1\otimes Z_2 $$

Where $X,Y,Z$ are Pauli matrices. Since $[X_1,Y_2] = 0$, I can simultaneously perform the time evolution simulation of $X_1$ and $Y_2$. Thus, it seems like both Hamiltonians could be simulated using the following circuit ($\pi$ is just a random number):

enter image description here

Is this circuit looks right? If so, how can I tell the difference between these two Hamiltonians just by looking at the circuit?

How can I simulate Hamiltonians composed of Pauli matrices?

Suppose I want to perform the time-evolution simulation on the following Hamiltonians:

$$ H_{1} = X_1+ Y_2 + Z_1\otimes Z_2 \\ H_{2} = X_1\otimes Y_2 + Z_1\otimes Z_2 $$

Where $X,Y,Z$ are Pauli matrices. Since $[X_1,Y_2] = 0$, I can simultaneously perform the time evolution simulation of $X_1$ and $Y_2$. Thus, it seems like both Hamiltonians could be simulated using the following circuit ($\pi$ is just a random number):

Enter image description here

Is this circuit looks right? If so, how can I tell the difference between these two Hamiltonians just by looking at the circuit?

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Martin Vesely
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