Loading core/java/android/view/WindowOrientationListener.java +2 −51 Original line number Diff line number Diff line Loading @@ -145,32 +145,6 @@ public abstract class WindowOrientationListener { private static final float LP_LF_LOWER = ((float)(LP_UPPER - LP_LOWER))/((float)(PIVOT-PIVOT_LOWER)); // new orientation h4x start here // -- optedoblivion private static final int LANDSCAPE_LOWER_2 = 125; private static final int LP_LOWER_2 = 40; private static final int PL_UPPER_2 = 65; private static final int PL_LOWER_2 = 90; private static final int LP_UPPER_2 = 1; private static final int PORTRAIT_LOWER_2 = 300; // Internal value used for calculating linear variant private static final float PL_LF_UPPER_2 = ((float)(PL_UPPER_2-PL_LOWER_2))/((float)(PIVOT_UPPER-PIVOT)); private static final float PL_LF_LOWER_2 = ((float)(PL_UPPER_2-PL_LOWER_2))/((float)(PIVOT-PIVOT_LOWER)); // Internal value used for calculating linear variant private static final float LP_LF_UPPER_2 = ((float)(LP_UPPER_2 - LP_LOWER_2))/((float)(PIVOT_UPPER-PIVOT)); private static final float LP_LF_LOWER_2 = ((float)(LP_UPPER_2 - LP_LOWER_2))/((float)(PIVOT-PIVOT_LOWER)); // End h4x vars public void onSensorChanged(SensorEvent event) { float[] values = event.values; float X = values[_DATA_X]; Loading Loading @@ -221,30 +195,7 @@ public abstract class WindowOrientationListener { rotation = Surface.ROTATION_90; } else if ((orientation >= PL_UPPER) || (orientation <= PORTRAIT_LOWER)) { rotation = Surface.ROTATION_0; // Start orientation h4x // --optedoblivion } else if ((orientation <= PL_LOWER_2) && (orientation >= LP_UPPER_2)){ float threshold; float delta = zyangle - PIVOT; if(mSensorRotation == Surface.ROTATION_270) { if (delta < 0){ threshold = LP_LOWER_2 - (LP_LF_LOWER_2 * delta); } else { threshold = LP_LOWER_2 + (LP_LF_UPPER_2 * delta); } rotation = (orientation <= threshold) ? Surface.ROTATION_0 : Surface.ROTATION_270; } else { if (delta < 0){ threshold = PL_UPPER_2 + (PL_LF_LOWER_2 * delta); } else { threshold = PL_UPPER_2 - (PL_LF_UPPER_2 * delta); } rotation = (orientation >= threshold) ? Surface.ROTATION_270 : Surface.ROTATION_0; } } else if ((orientation <= LANDSCAPE_LOWER_2) && (orientation > LP_LOWER_2)){ rotation = Surface.ROTATION_270; } // End orientation h4x if ((rotation != -1) && (rotation != mSensorRotation)) { mSensorRotation = rotation; onOrientationChanged(mSensorRotation); Loading Loading
core/java/android/view/WindowOrientationListener.java +2 −51 Original line number Diff line number Diff line Loading @@ -145,32 +145,6 @@ public abstract class WindowOrientationListener { private static final float LP_LF_LOWER = ((float)(LP_UPPER - LP_LOWER))/((float)(PIVOT-PIVOT_LOWER)); // new orientation h4x start here // -- optedoblivion private static final int LANDSCAPE_LOWER_2 = 125; private static final int LP_LOWER_2 = 40; private static final int PL_UPPER_2 = 65; private static final int PL_LOWER_2 = 90; private static final int LP_UPPER_2 = 1; private static final int PORTRAIT_LOWER_2 = 300; // Internal value used for calculating linear variant private static final float PL_LF_UPPER_2 = ((float)(PL_UPPER_2-PL_LOWER_2))/((float)(PIVOT_UPPER-PIVOT)); private static final float PL_LF_LOWER_2 = ((float)(PL_UPPER_2-PL_LOWER_2))/((float)(PIVOT-PIVOT_LOWER)); // Internal value used for calculating linear variant private static final float LP_LF_UPPER_2 = ((float)(LP_UPPER_2 - LP_LOWER_2))/((float)(PIVOT_UPPER-PIVOT)); private static final float LP_LF_LOWER_2 = ((float)(LP_UPPER_2 - LP_LOWER_2))/((float)(PIVOT-PIVOT_LOWER)); // End h4x vars public void onSensorChanged(SensorEvent event) { float[] values = event.values; float X = values[_DATA_X]; Loading Loading @@ -221,30 +195,7 @@ public abstract class WindowOrientationListener { rotation = Surface.ROTATION_90; } else if ((orientation >= PL_UPPER) || (orientation <= PORTRAIT_LOWER)) { rotation = Surface.ROTATION_0; // Start orientation h4x // --optedoblivion } else if ((orientation <= PL_LOWER_2) && (orientation >= LP_UPPER_2)){ float threshold; float delta = zyangle - PIVOT; if(mSensorRotation == Surface.ROTATION_270) { if (delta < 0){ threshold = LP_LOWER_2 - (LP_LF_LOWER_2 * delta); } else { threshold = LP_LOWER_2 + (LP_LF_UPPER_2 * delta); } rotation = (orientation <= threshold) ? Surface.ROTATION_0 : Surface.ROTATION_270; } else { if (delta < 0){ threshold = PL_UPPER_2 + (PL_LF_LOWER_2 * delta); } else { threshold = PL_UPPER_2 - (PL_LF_UPPER_2 * delta); } rotation = (orientation >= threshold) ? Surface.ROTATION_270 : Surface.ROTATION_0; } } else if ((orientation <= LANDSCAPE_LOWER_2) && (orientation > LP_LOWER_2)){ rotation = Surface.ROTATION_270; } // End orientation h4x if ((rotation != -1) && (rotation != mSensorRotation)) { mSensorRotation = rotation; onOrientationChanged(mSensorRotation); Loading