Oh gosh no. First, this does not mean that quantum bits state can be known "in advance" (whatever that means, if you detect the state before collapse, does that mean they could later collapse into a different state? If so, that's pointless. If not, then its already collapsed). The way I read the article, it doesn't mean they can observe state without collapsing, but rather can gain some information about it before collapsing by effectively stretching out the collapse into a series of gradual collapses about different axis, collapsing different parts and gaining information about them as you go. So that doesn't follow. Furthermore, even if you COULD observe a quantum entanglement without collapsing it, how does that help you with remote communications? Merely transmitting quantum information doesn't enable you to communicate in any meaningful way other than random data. You simply cannot transmit classical information (a message) via quantum information. Lets say two qubits are entangled, you still have to send one of those qubits to the other person at sub-c, so what good is having entangled qubits at that point? There's no way to entangle two qubits, send one to someone, and then control the collapse, which is what would be necessary for FTL comms. Even if you could observe it, that isn't good enough. Sorry, as cool as FTL comms are.