NetworkInterpolatedTransform to Photon Unity Networking

Hi, I transfered the NetworkInterpolatedTransform.cs, which works perfectly fine with unitys build in networking, of the Unity Network Example to PUN. But, in contrast to unity networking, the movement of the remote players is far from smooth. I get a much better result with a simple lerp from the actual position to the new received position. With a interpolationBackTime of 0.1(default Time) the remote players just jump from one position to the next. When i set the default Time to 0.2 or higher, the movement gets smoother(but far away from a simple lerp), but the received data is also more outdated. I use Photon Cloud. Please let me know, if you figure out what my mystake is, that would be great :).

 using UnityEngine;
 using System.Collections;
 
 public class NetworkInterpolatedTransform : Photon.MonoBehaviour {
 
     public double interpolationBackTime = 0.1; 
 
     internal struct State
     {
         internal double timestamp;
         internal Vector3 pos;
         internal Quaternion rot;
     }
 
     // We store twenty states with "playback" information
     State[] m_BufferedState = new State[20];
 
     // Keep track of what slots are used
     int m_TimestampCount;
 
     void OnPhotonSerializeView(PhotonStream stream, PhotonMessageInfo info)
     {
         // Always send transform (depending on reliability of the network view)
         if (stream.isWriting)
         {
             Vector3 pos = transform.localPosition;
             Quaternion rot = transform.localRotation;
             stream.Serialize(ref pos);
             stream.Serialize(ref rot);
         }
         // When receiving, buffer the information
         else
         {
             // Receive latest state information
             Vector3 pos = transform.position;
             Quaternion rot = Quaternion.identity;
             stream.Serialize(ref pos);
             stream.Serialize(ref rot);
 
             // Shift buffer contents, oldest data erased, 18 becomes 19, ... , 0 becomes 1
             for (int i = m_BufferedState.Length-1; i >= 1; i--)
             {
                 m_BufferedState[i] = m_BufferedState[i-1];
             }
 
             // Save currect received state as 0 in the buffer, safe to overwrite after shifting
             State state;
             state.timestamp = info.timestamp;
             state.pos = pos;
             state.rot = rot;
             m_BufferedState[0] = state;
 
             // Increment state count but never exceed buffer size
             m_TimestampCount = Mathf.Min(m_TimestampCount + 1, m_BufferedState.Length);
 
             // Check integrity, lowest numbered state in the buffer is newest and so on
             for (int i = 0; i < m_TimestampCount-1; i++)
             {
                 if (m_BufferedState[i].timestamp < m_BufferedState[i+1].timestamp)
                 Debug.Log("State inconsistent");
             }
 
             //Debug.Log("stamp: " + info.timestamp + "my time: " + PhotonNetwork.time + "delta: " + (PhotonNetwork.time - info.timestamp));
         }
     }
 
     // This only runs where the component is enabled, which is only on remote peers (server/clients)
     void Update ()
     {
         double currentTime = PhotonNetwork.time;
         double interpolationTime = currentTime - interpolationBackTime;
         // We have a window of interpolationBackTime where we basically play 
         // By having interpolationBackTime the average ping, you will usually use interpolation.
         // And only if no more data arrives we will use extrapolation
 
         // Use interpolation
         // Check if latest state exceeds interpolation time, if this is the case then
         // it is too old and extrapolation should be used
         if (m_BufferedState[0].timestamp > interpolationTime)
         {
             for (int i = 0; i < m_TimestampCount; i++)
             {
                 // Find the state which matches the interpolation time (time+0.1) or use last state
                 if (m_BufferedState[i].timestamp <= interpolationTime || i == m_TimestampCount-1)
                 {
                     // The state one slot newer (<100ms) than the best playback state
                     State rhs = m_BufferedState[Mathf.Max(i-1, 0)];
 
                     // The best playback state (closest to 100 ms old (default time))
                     State lhs = m_BufferedState[i];
 
                     // Use the time between the two slots to determine if interpolation is necessary
                     double length = rhs.timestamp - lhs.timestamp;
                     float t = 0.0F;
                     // As the time difference gets closer to 100 ms t gets closer to 1 in 
                     // which case rhs is only used
                     if (length > 0.0001)
                         t = (float)((interpolationTime - lhs.timestamp) / length);
 
                     // if t=0 => lhs is used directly
                     transform.localPosition = Vector3.Lerp(lhs.pos, rhs.pos, t);
                     transform.localRotation = Quaternion.Slerp(lhs.rot, rhs.rot, t);
                     return;
                 }
             }
         }
         // Use extrapolation. Here we do something really simple and just repeat the last
         // received state. You can do clever stuff with predicting what should happen.
         else
         {
             State latest = m_BufferedState[0];
             transform.localPosition = latest.pos;
             transform.localRotation = latest.rot;
         }
     }
 }