system
Given the following post, respond as if you're commenting on Reddit:
human
Instantaneous communication via quantum entanglement?

I've done some reading about the nature of quantum physics, and have heard it explained how despite the ability for quantum particles to effect each other at great distance, there is no transfer of "information."  Where the arbitrary states of "up" and "down" are concerned there is no way to control these states as the receiver sees them.  They are in fact random.  

But I got to thinking about how we could change what event constitutes a "bit" of information.  What if instead of trying to communicate with arbitrary and random spin states, we took the change in a state to be a "1" and the lack of change to be a "0."  

Obviously the biggest argument against this system is that sometimes a quantum state will not change when measured.  Therefore, if the ones and zeros being transmitted only have a 50% chance of being the bit that was intended.  

What if then, to solve this problem, we created an array of 10 quantum particles which we choose to measure, or leave alone in exact 1 second intervals.  If we want to send a "1" to the reciever we first measure all 10 particles simultaneously.  If any of the receiver's 10 particles change state, then that indicates that a "1" was sent.  If we want to send a zero, we "keep" the current measurement.  Using this method there could only be a false zero 1 out of 2^10 times.  Even more particles in the array would ensure greater signal accuracy.

Also, we could increase the amount of information being sent by increasing the frequency of measuremt.  Is there something wrong with my thinking?
gpt
Your proposal runs into the problem that it is not possible to detect the fact that a particle has changed it state. On the receiving end, all you can do is measure the particle, and when you do you have no idea whether the result you got was determined ahead of time by the sending making a measurement, or if you were the first to measure and collapse its state.