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Why two spin $1$ boson-$1$ bosons could not be atin a spin $|1$\frac{1}{\sqrt{2}}(|1,0\rangle-|0,1\rangle$ states1\rangle)$ state?

Consider two boson of spin $1$ without angular momentum. I'm seeing an argument that "because those two particles were boson, they must be symmetric under the exchange $m_1,m_2$. Thus they could not be in $J=1$ states such as $\frac{1}{\sqrt{2}}(|1,0\rangle+|0,1\rangle$)".

"because those two particles were bosons, they must be symmetric under the exchange $m_1,m_2$. Thus they could not be in $J=1$ states such as $\frac{1}{\sqrt{2}}(|1,0\rangle+|0,1\rangle$)".

From appearance it kind of make sense, but then it doesn't, i.e. what if the spacial part of the wave function was asymmetric as well? Doesn't that resolve the issue?

Why two spin  -$1$ bosonbosons could not be atin a spin $|1,0\rangle-|0,1\rangle$ states$\frac{1}{\sqrt{2}}(|1,0\rangle-|0,1\rangle)$ state?

Why two spin $1$ boson could not be at spin $|1,0\rangle-|0,1\rangle$ states?

Consider two boson of spin $1$ without angular momentum. I'm seeing an argument that "because those two particles were boson, they must be symmetric under the exchange $m_1,m_2$. Thus they could not be in $J=1$ states such as $\frac{1}{\sqrt{2}}(|1,0\rangle+|0,1\rangle$)".

From appearance it kind of make sense, but then it doesn't, i.e. what if the spacial part of the wave function was asymmetric as well? Doesn't that resolve the issue?

Why two spin  $1$ boson could not be at spin $|1,0\rangle-|0,1\rangle$ states?

Why two spin-$1$ bosons could not be in a spin $\frac{1}{\sqrt{2}}(|1,0\rangle-|0,1\rangle)$ state?

Consider two boson of spin $1$ without angular momentum. I'm seeing an argument that

"because those two particles were bosons, they must be symmetric under the exchange $m_1,m_2$. Thus they could not be in $J=1$ states such as $\frac{1}{\sqrt{2}}(|1,0\rangle+|0,1\rangle$)".

From appearance it kind of make sense, but then it doesn't, i.e. what if the spacial part of the wave function was asymmetric as well? Doesn't that resolve the issue?

Why two spin-$1$ bosons could not be in a spin $\frac{1}{\sqrt{2}}(|1,0\rangle-|0,1\rangle)$ state?

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Why two spin $1$ boson could not be at spin $|1,0\rangle-|0,1\rangle$ states?

Consider two boson of spin $1$ without angular momentum. I'm seeing an argument that "because those two particles were boson, they must be symmetric under the exchange $m_1,m_2$. Thus they could not be in $J=1$ states such as $\frac{1}{\sqrt{2}}(|1,0\rangle+|0,1\rangle$)".

From appearance it kind of make sense, but then it doesn't, i.e. what if the spacial part of the wave function was asymmetric as well? Doesn't that resolve the issue?

Why two spin $1$ boson could not be at spin $|1,0\rangle-|0,1\rangle$ states?