Local

40     void UpdateFacingDirection()
41     {
42         if( m_Body.velocity.x > 0.2f )
43         {
44             transform.localScale = new Vector3( 1, 1, 1 );
45         }
46         else if( m_Body.velocity.x < -0.2f )
47         {
48             transform.localScale = new Vector3( -1, 1, 1 );
49         }
50     }

16     private PhotonAnimatorView m_AnimatorView; // local animatorView. set when we create our character in CreatePlayerObject()
17     private Animator m_RemoteAnimator; // to display the synchronized values on the right side in the GUI. A third player will simply be ignored (until the second player leaves)
28     public void Awake()
29     {
30
31     }

20     void Start()
21     {
22         m_CameraTransform = transform.GetChild( 0 );
23         m_LocalForwardVector = m_CameraTransform.forward;
24
25         m_Distance = -m_CameraTransform.localPosition.z / m_CameraTransform.forward.z;
26         m_Distance = Mathf.Clamp( m_Distance, MinimumDistance, MaximumDistance );
27         m_LookAtPoint = m_CameraTransform.localPosition + m_LocalForwardVector * m_Distance;
28     }

43     void UpdateZoom()
44     {
45         m_CameraTransform.localPosition = m_LookAtPoint - m_LocalForwardVector * m_Distance;
46     }

21     // this method is called by PUN when this script is being "observed" by a PhotonView (setup in inspector)
22     public void OnPhotonSerializeView(PhotonStream stream, PhotonMessageInfo info)
23     {
24         // Always send transform (depending on reliability of the network view)
25         if (stream.isWriting)
26         {
27             Vector3 pos = transform.localPosition;
28             Quaternion rot = transform.localRotation;
29             stream.Serialize(ref pos);
30             stream.Serialize(ref rot);
31         }
32         // When receiving, buffer the information
33         else
34         {
35             // Receive latest state information
36             Vector3 pos = Vector3.zero;
37             Quaternion rot = Quaternion.identity;
38             stream.Serialize(ref pos);
39             stream.Serialize(ref rot);
40
41             lastMovement = (pos - latestCorrectPos) / (Time.time - lastTime);
42
43             lastTime = Time.time;
44             latestCorrectPos = pos;
45
46             transform.position = latestCorrectPos;
47         }
48     }

50     // This only runs where the component is enabled, which is only on remote peers (server/clients)
51     public void Update()
52     {
53         transform.localPosition += lastMovement * Time.deltaTime;
54     }

34     void OnPhotonSerializeView(PhotonStream stream, PhotonMessageInfo info)
35     {
36         // Always send transform (depending on reliability of the network view)
37         if (stream.isWriting)
38         {
39             Vector3 pos = transform.localPosition;
40             Quaternion rot = transform.localRotation;
41             stream.Serialize(ref pos);
42             stream.Serialize(ref rot);
43         }
44         // When receiving, buffer the information
45         else
46         {
47    // Receive latest state information
48             Vector3 pos = Vector3.zero;
49             Quaternion rot = Quaternion.identity;
50             stream.Serialize(ref pos);
51             stream.Serialize(ref rot);
52
53             // Shift buffer contents, oldest data erased, 18 becomes 19, ... , 0 becomes 1
54             for (int i = m_BufferedState.Length - 1; i >= 1; i--)
55             {
56                 m_BufferedState[i] = m_BufferedState[i - 1];
57             }
58
59
60             // Save currect received state as 0 in the buffer, safe to overwrite after shifting
61             State state;
62             state.timestamp = info.timestamp;
63             state.pos = pos;
64             state.rot = rot;
65             m_BufferedState[0] = state;
66
67             // Increment state count but never exceed buffer size
68             m_TimestampCount = Mathf.Min(m_TimestampCount + 1, m_BufferedState.Length);
69
70             // Check integrity, lowest numbered state in the buffer is newest and so on
71             for (int i = 0; i < m_TimestampCount - 1; i++)
72             {
73                 if (m_BufferedState[i].timestamp < m_BufferedState[i + 1].timestamp)
74                     Debug.Log("State inconsistent");
75             }
76   }
77     }

79     // This only runs where the component is enabled, which is only on remote peers (server/clients)
80     void Update()
81     {
82         double currentTime = PhotonNetwork.time;
83         double interpolationTime = currentTime - interpolationBackTime;
84         // We have a window of interpolationBackTime where we basically play
85         // By having interpolationBackTime the average ping, you will usually use interpolation.
86         // And only if no more data arrives we will use extrapolation
87
88         // Use interpolation
89         // Check if latest state exceeds interpolation time, if this is the case then
90         // it is too old and extrapolation should be used
91         if (m_BufferedState[0].timestamp > interpolationTime)
92         {
93     for (int i = 0; i < m_TimestampCount; i++)
94             {
95                 // Find the state which matches the interpolation time (time+0.1) or use last state
96                 if (m_BufferedState[i].timestamp <= interpolationTime || i == m_TimestampCount - 1)
97                 {
98                     // The state one slot newer (<100ms) than the best playback state
99                     State rhs = m_BufferedState[Mathf.Max(i - 1, 0)];
100                     // The best playback state (closest to 100 ms old (default time))
101                     State lhs = m_BufferedState[i];
102
103                     // Use the time between the two slots to determine if interpolation is necessary
104                     double length = rhs.timestamp - lhs.timestamp;
105                     float t = 0.0F;
106                     // As the time difference gets closer to 100 ms t gets closer to 1 in
107                     // which case rhs is only used
108                     if (length > 0.0001)
109                         t = (float)((interpolationTime - lhs.timestamp) / length);
110
111                     // if t=0 => lhs is used directly
112                     transform.localPosition = Vector3.Lerp(lhs.pos, rhs.pos, t);
113                     transform.localRotation = Quaternion.Slerp(lhs.rot, rhs.rot, t);
114      return;
115                 }
116             }
117         }
118         // Use extrapolation. Here we do something really simple and just repeat the last
119         // received state. You can do clever stuff with predicting what should happen.
120         else
121         {
122             State latest = m_BufferedState[0];
123
124             transform.localPosition = Vector3.Lerp(transform.localPosition, latest.pos, Time.deltaTime * 20 );
125             transform.localRotation = latest.rot;
126         }
127     }

35     public void OnPhotonSerializeView(PhotonStream stream, PhotonMessageInfo info)
36     {
37         if (stream.isWriting)
38         {
39             Vector3 pos = transform.localPosition;
40             Quaternion rot = transform.localRotation;
41             stream.Serialize(ref pos);
42             stream.Serialize(ref rot);
43         }
44         else
45         {
46             // Receive latest state information
47             Vector3 pos = Vector3.zero;
48             Quaternion rot = Quaternion.identity;
49
50             stream.Serialize(ref pos);
51             stream.Serialize(ref rot);
52
53             latestCorrectPos = pos; // save this to move towards it in FixedUpdate()
54             onUpdatePos = transform.localPosition; // we interpolate from here to latestCorrectPos
55             fraction = 0; // reset the fraction we alreay moved. see Update()
56
57             transform.localRotation = rot; // this sample doesn't smooth rotation
58         }
59     }

61     public void Update()
62     {
63         // We get 10 updates per sec. sometimes a few less or one or two more, depending on variation of lag.
64         // Due to that we want to reach the correct position in a little over 100ms. This way, we usually avoid a stop.
65         // Lerp() gets a fraction value between 0 and 1. This is how far we went from A to B.
66         //
67         // Our fraction variable would reach 1 in 100ms if we multiply deltaTime by 10.
68         // We want it to take a bit longer, so we multiply with 9 instead.
69
70         fraction = fraction + Time.deltaTime * 9;
71         transform.localPosition = Vector3.Lerp(onUpdatePos, latestCorrectPos, fraction); // set our pos between A and B
72     }