Program: 180384
Project: 180384
Buggy source:
private Point successor(Rkf45Computation computation,final Point point){
  float[] successorData=new float[point.getDimension()];
  float[] auxiliaryData=new float[point.getDimension()];
  float[] absoluteError=new float[point.getDimension()];
  float[] previousData=point.toArray();
  for (; computation.iteration < computation.configuration.getMaxNumberOfIterations(); computation.iteration++) {
    prepareCoefficents(computation,previousData);
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      absoluteError[dim]=Math.abs(R1 * computation.k1[dim] + R3 * computation.k3[dim] + R4 * computation.k4[dim] + R5 * computation.k5[dim] + R6 * computation.k6[dim]);
      if (computation.configuration.getMaxAbsoluteError()[dim] != 0 && absoluteError[dim] > computation.configuration.getMaxAbsoluteError()[dim]) {
        computation.timeStep/=2;
        if (computation.timeStep < MINIMAL_TIME_STEP) {
          computation.status=Status.PRECISION;
          return null;
        }
        continue;
      }
    }
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      successorData[dim]=previousData[dim] + N1 * computation.k1[dim] + N3 * computation.k3[dim] + N4 * computation.k4[dim] + N5 * computation.k5[dim];
    }
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      if (computation.configuration.getMaxRelativeError() != 0 && Math.abs(absoluteError[dim] / successorData[dim]) > computation.configuration.getMaxRelativeError()) {
        computation.timeStep/=2;
        if (computation.timeStep < MINIMAL_TIME_STEP) {
          computation.status=Status.PRECISION;
          return null;
        }
        continue;
      }
    }
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      if (Math.abs(successorData[dim] - previousData[dim]) > computation.configuration.getSteps()[dim]) {
        computation.timeStep/=2;
        if (computation.timeStep < MINIMAL_TIME_STEP) {
          computation.status=Status.PRECISION;
          return null;
        }
        continue;
      }
    }
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      if (successorData[dim] > computation.configuration.getMaxBounds()[dim] || successorData[dim] < computation.configuration.getMinBounds()[dim]) {
        computation.status=Status.BOUNDS;
        return null;
      }
    }
    return new ArrayPoint(successorData,point.getTime() + computation.timeStep);
  }
  return null;
}

Fixed version (ground truth):
private Point successor(Rkf45Computation computation,final Point point){
  float[] successorData=new float[point.getDimension()];
  float[] auxiliaryData=new float[point.getDimension()];
  float[] absoluteError=new float[point.getDimension()];
  float[] previousData=point.toArray();
  simulation:   for (; computation.iteration < computation.configuration.getMaxNumberOfIterations(); computation.iteration++) {
    prepareCoefficents(computation,previousData);
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      absoluteError[dim]=Math.abs(R1 * computation.k1[dim] + R3 * computation.k3[dim] + R4 * computation.k4[dim] + R5 * computation.k5[dim] + R6 * computation.k6[dim]);
      if (computation.configuration.getMaxAbsoluteError()[dim] != 0 && absoluteError[dim] > computation.configuration.getMaxAbsoluteError()[dim]) {
        computation.timeStep/=2;
        if (computation.timeStep < MINIMAL_TIME_STEP) {
          computation.status=Status.PRECISION;
          return null;
        }
        continue simulation;
      }
    }
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      successorData[dim]=previousData[dim] + N1 * computation.k1[dim] + N3 * computation.k3[dim] + N4 * computation.k4[dim] + N5 * computation.k5[dim];
    }
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      if (computation.configuration.getMaxRelativeError() != 0 && Math.abs(absoluteError[dim] / successorData[dim]) > computation.configuration.getMaxRelativeError()) {
        computation.timeStep/=2;
        if (computation.timeStep < MINIMAL_TIME_STEP) {
          computation.status=Status.PRECISION;
          return null;
        }
        continue simulation;
      }
    }
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      if (Math.abs(successorData[dim] - previousData[dim]) > computation.configuration.getSteps()[dim]) {
        System.out.println("String_Node_Str" + dim + "String_Node_Str"+ computation.configuration.getSteps()[dim]+ "String_Node_Str"+ Math.abs(successorData[dim] - previousData[dim])+ "String_Node_Str"+ Arrays.toString(previousData)+ "String_Node_Str"+ Arrays.toString(successorData));
        computation.timeStep/=2;
        if (computation.timeStep < MINIMAL_TIME_STEP) {
          computation.status=Status.PRECISION;
          return null;
        }
        continue simulation;
      }
    }
    for (int dim=0; dim < computation.configuration.getDimension(); dim++) {
      if (successorData[dim] > computation.configuration.getMaxBounds()[dim] || successorData[dim] < computation.configuration.getMinBounds()[dim]) {
        computation.status=Status.BOUNDS;
        return null;
      }
    }
    return new ArrayPoint(successorData,point.getTime() + computation.timeStep);
  }
  return null;
}