I saw the OP, but the question still nagged, so I did the math:
Now, say it were possible to use something theoretical like quantum entanglement to transmit a perfect blueprint of your structure and current chemical interactions / reactions at the exact state they are currently at with no error to a machine that could perfectly recreate and position all approximately 4.093x10^28 atoms in your body with the correct kinetics and energy levels in each atom.
You would then have instant teleportation to anywhere in the universe. You would also kill yourself each time you used the machine.
To get an idea of the amount of data required to model this lets assume the body is recreated using a Cartesian plane. Each atom would need a location so that is 3 coordinates for the x, y, and z, as well as a rotation number. So we will say that can all be contained in say 200 bytes (kind of arbitrary, but give the size many many digits will be required, possibly the body is split into zones to reduce size) Then we must include the kinetics, so a vector(need 3 numbers to describe, 3 bytes)will be needed with a magnitude (Not sure how to store, say 5 bytes and angular momentum (need vector and magnitude, another 8 bytes). This brings the total to 216 bytes per atom. Now, we also need to know the connectivity of each atom, which means charges if we know the relative position. Charges are dependent on the quantum state of each electron, but this can be generalized for the atom if the atom is in a simple bond, but is much more difficult to describe in the case of molecules which have very complex molecular orbitals. Say science finds a model that works accurately enough to model these charges and orbitals in all situations (we cannot currently do this, also the uncertainty principle makes this basically impossible), then that data must be stored. We will say there is a vector and magnitude expressed as a wave equation for each electron in the atom. We will generalize this to about another 200 bytes though it could be much larger. That now totals 416 bytes per atom.
Now, each atom has an isotope so add another byte, many have different oxidation states, so add another, and if the atom / molecule is currently undergoing an reaction different conditions may need to be applied, so add another 10 bytes to be safe. Plus some atoms may be undergoing a nuclear reaction so add another byte to these (possibly a special class to include the material being ejected) and we total 429 bytes per atom. Now, because I am doing this on the fly with no knowledge of programming I will round that up to 500 bytes per atom.
500 bytes / atom * 4.093x10^28 atoms = 2.047×10^31 bytes
To put that in perspective that is 2.2×10^14 * the estimated data content of the deep web (~~ 91000 TB )
or 17,338,764,430.2955279407 zettabytes
Even if the amount of data were reduced to a byte per atom the amount of data needed to model a human body is immense to say the least
So, it can safely be said that instant teleportation is a long way off just using the data perspective.
If I have derped up my math please tell me, it is very late here.