Editing Verifiable Quantum Anonymous Transmission (section)

==Further Information==
* For simplicity, the same security parameter <math>q</math> has been used throughout, however, this is not required.
* Although <span style="font-variant:small-caps">Parity</span> requires a simultaneous broadcast channel, only modified versions of <span style="font-variant:small-caps">Parity</span> that remove this requirement are used in the anonymous transmission protocol.
* The protocol assumes there is only one Sender for simplicity. However, if this is not the case, the players can run a classical [[Verifiable Quantum Anonymous Transmission#References|[3]]] or quantum [[Verifiable Quantum Anonymous Transmission#References|[2]]] collision detection protocol to deal with multiple Senders. 
* To send classical teleportation bits <math>m_0, m_1</math>, the players can run <span style="font-variant:small-caps">Fixed Role Anonymous Message Transmission</span> from [[Verifiable Quantum Anonymous Transmission#References|[3]]], or the anonymous transmission protocol for classical bits with quantum resources from [[Verifiable Quantum Anonymous Transmission#References|[2]]].
* <span style="font-variant:small-caps">Verification</span> was experimentally demonstrated for 3- and 4-party GHZ states in [[Verifiable Quantum Anonymous Transmission#References|[5]]].
* The Broadbent-Tapp protocol [[Verifiable Quantum Anonymous Transmission#References|[3]]] implements classical anonymous transmission. It requires pairwise authenticated classical channels and a classical broadcast channel. 
* The Christandl-Wehner protocol [[Verifiable Quantum Anonymous Transmission#References|[2]]] implements both classical and quantum anonymous transmission. However, this protocol assumes the nodes share a perfect, trusted GHZ state.
* The Brassard et. al. protocol [[Verifiable Quantum Anonymous Transmission#References|[6]]] implements verified quantum anonymous transmission. While their protocol includes a verification stage, it requires each player to perform a size-<math>n</math> quantum circuit and to have access to quantum communication with all other agents.
* The Lipinska et. al. protocol [[Verifiable Quantum Anonymous Transmission#References|[7]]] implements quantum anonymous transmission with a trusted W state instead of a GHZ state. While this is beneficial in terms of robustness to noise, the protocol proceeds to create anonymous entanglement only probabilistically, whereas GHZ-based anonymous entanglement proceeds deterministically.