Is there such a thing as an anti-boson? 
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*Can there be an anti-boson that when interacting with normal bosons, creates matter, like when anti-matter creates energy when interacting with matter? 

*I know that anti-particles can be considered regular particles going backwards in time, can’t the same logic be applied to bosons. 

*Also, if supersymmetry is real, would that also suggest that the super bosons would have anti-super bosons, and therefore, regular anti-bosons.
 A: Yes, the $W^+$ and $W^-$ gauge bosons that are part of the weak nuclear interaction are antiparticles of each other and can annihilate. The annihilation could produce a variety of things... two photons most likely, but also a lepton/anti-lepton pair, a quark/anti-quark pair, a $Z$ boson, etc.
The neutral gauge bosons — photons, gluons, and the $Z$ — are their own antiparticle. Since they carry no electric charge, they can’t annihilate directly to two photons the way a $W^+$ and $W^-$ can. But they can produce other things. For example a high-energy collision of two photons can create an electron and a positron. This is just the time-reverse of the annihilation of an electron and positron to two photons.
A: The answer by G.Smith is fine. I want to clear misapprehensions in the questions.

Can there be an anti-boson that when interacting with normal bosons, creates matter, like when anti-matter creates energy when interacting with matter?

If the boson is not characterized by a charge, or specific quantum numbers, it is the antiparticle of itself. Gluons, which are bosons carry two color charges and the antigluon of each gluon will be different because of this. So it depends on the boson, as the other answer also shows.

I know that anti-particles can be considered regular particles going backwards in time, can’t the same logic be applied to bosons.

It is. If they are antiparticles of themselves, nothing changes, otherwise as with the W example charge has to be taken into account.

Also, if supersymmetry is real, would that also suggest that the super bosons would have anti-super bosons, and therefore, regular anti-bosons.

Supersymmetry introduces new quantum numbers and these have to be taken specifically into account, as also the old ones.  Anti supersymmetric boson would still be sypersymmetric, not "regular anti-bosons." Quantum numbers and charges  have to be taken into account all the time.
