public Sdp(IList<IUdpIceCandidate> udpIceCandidates)
{
UdpIceCandidates = udpIceCandidates;
// Generate a cryptographically secure random user name with minimum of 24 bits of randomness which is 4 characters given the 6 bits of randomness per ICE char (alpha, digit, + and / alphabet).
UserName = new RandomIceCharString(4);
// Generate a cryptographically secure random password with minimum of 128 bits of randomness which is 22 characters given the 6 bits of randomness per ICE char (alpha, digit, + and / alphabet).
Password = new RandomIceCharString(22);
var fingerprint = new byte[] { };
CryptographicBuffer.CopyToByteArray(CryptographicBuffer.GenerateRandom(96), out fingerprint);
// TODO: Make a class for this that holds the algorithm enum and bytes of the hash. sha-256 18:B6:57:DA:92:EE:45:81:65:EB…
Fingerprint = new byte[96];
Setup = SdpSetup.Passive;
}
public Sdp(IList <IUdpIceCandidate> udpIceCandidates)
{
UdpIceCandidates = udpIceCandidates;
// Generate a cryptographically secure random user name with minimum of 24 bits of randomness which is 4 characters given the 6 bits of randomness per ICE char (alpha, digit, + and / alphabet).
UserName = new RandomIceCharString(4);
// Generate a cryptographically secure random password with minimum of 128 bits of randomness which is 22 characters given the 6 bits of randomness per ICE char (alpha, digit, + and / alphabet).
Password = new RandomIceCharString(22);
var fingerprint = new byte[] { };
CryptographicBuffer.CopyToByteArray(CryptographicBuffer.GenerateRandom(96), out fingerprint);
// TODO: Make a class for this that holds the algorithm enum and bytes of the hash. sha-256 18:B6:57:DA:92:EE:45:81:65:EB…
Fingerprint = new byte[96];
Setup = SdpSetup.Passive;
}
