Examples with Direction com.android.launcher3.userevent.nano.LauncherLogProto.Action.Direction used on opensource projects

Example 21 with Direction

use of com.android.launcher3.userevent.nano.LauncherLogProto.Action.Direction in project android_packages_apps_Launcher3 by ArrowOS.

the class CellLayout method addViewsToTempLocation.

private boolean addViewsToTempLocation(ArrayList<View> views, Rect rectOccupiedByPotentialDrop, int[] direction, View dragView, ItemConfiguration currentState) {
    if (views.size() == 0)
        return true;
    boolean success = false;
    Rect boundingRect = new Rect();
    // We construct a rect which represents the entire group of views passed in
    currentState.getBoundingRectForViews(views, boundingRect);
    // Mark the occupied state as false for the group of views we want to move.
    for (View v : views) {
        CellAndSpan c = currentState.map.get(v);
        mTmpOccupied.markCells(c, false);
    }
    GridOccupancy blockOccupied = new GridOccupancy(boundingRect.width(), boundingRect.height());
    int top = boundingRect.top;
    int left = boundingRect.left;
    // for interlocking.
    for (View v : views) {
        CellAndSpan c = currentState.map.get(v);
        blockOccupied.markCells(c.cellX - left, c.cellY - top, c.spanX, c.spanY, true);
    }
    mTmpOccupied.markCells(rectOccupiedByPotentialDrop, true);
    findNearestArea(boundingRect.left, boundingRect.top, boundingRect.width(), boundingRect.height(), direction, mTmpOccupied.cells, blockOccupied.cells, mTempLocation);
    // If we successfuly found a location by pushing the block of views, we commit it
    if (mTempLocation[0] >= 0 && mTempLocation[1] >= 0) {
        int deltaX = mTempLocation[0] - boundingRect.left;
        int deltaY = mTempLocation[1] - boundingRect.top;
        for (View v : views) {
            CellAndSpan c = currentState.map.get(v);
            c.cellX += deltaX;
            c.cellY += deltaY;
        }
        success = true;
    }
    // In either case, we set the occupied array as marked for the location of the views
    for (View v : views) {
        CellAndSpan c = currentState.map.get(v);
        mTmpOccupied.markCells(c, true);
    }
    return success;
}

Example 22 with Direction

use of com.android.launcher3.userevent.nano.LauncherLogProto.Action.Direction in project android_packages_apps_Launcher3 by ArrowOS.

the class CellLayout method pushViewsToTempLocation.

private boolean pushViewsToTempLocation(ArrayList<View> views, Rect rectOccupiedByPotentialDrop, int[] direction, View dragView, ItemConfiguration currentState) {
    ViewCluster cluster = new ViewCluster(views, currentState);
    Rect clusterRect = cluster.getBoundingRect();
    int whichEdge;
    int pushDistance;
    boolean fail = false;
    // the cluster must be shifted.
    if (direction[0] < 0) {
        whichEdge = ViewCluster.LEFT;
        pushDistance = clusterRect.right - rectOccupiedByPotentialDrop.left;
    } else if (direction[0] > 0) {
        whichEdge = ViewCluster.RIGHT;
        pushDistance = rectOccupiedByPotentialDrop.right - clusterRect.left;
    } else if (direction[1] < 0) {
        whichEdge = ViewCluster.TOP;
        pushDistance = clusterRect.bottom - rectOccupiedByPotentialDrop.top;
    } else {
        whichEdge = ViewCluster.BOTTOM;
        pushDistance = rectOccupiedByPotentialDrop.bottom - clusterRect.top;
    }
    // Break early for invalid push distance.
    if (pushDistance <= 0) {
        return false;
    }
    // Mark the occupied state as false for the group of views we want to move.
    for (View v : views) {
        CellAndSpan c = currentState.map.get(v);
        mTmpOccupied.markCells(c, false);
    }
    // We save the current configuration -- if we fail to find a solution we will revert
    // to the initial state. The process of finding a solution modifies the configuration
    // in place, hence the need for revert in the failure case.
    currentState.save();
    // The pushing algorithm is simplified by considering the views in the order in which
    // they would be pushed by the cluster. For example, if the cluster is leading with its
    // left edge, we consider sort the views by their right edge, from right to left.
    cluster.sortConfigurationForEdgePush(whichEdge);
    while (pushDistance > 0 && !fail) {
        for (View v : currentState.sortedViews) {
            // cluster.
            if (!cluster.views.contains(v) && v != dragView) {
                if (cluster.isViewTouchingEdge(v, whichEdge)) {
                    LayoutParams lp = (LayoutParams) v.getLayoutParams();
                    if (!lp.canReorder) {
                        // The push solution includes the all apps button, this is not viable.
                        fail = true;
                        break;
                    }
                    cluster.addView(v);
                    CellAndSpan c = currentState.map.get(v);
                    // Adding view to cluster, mark it as not occupied.
                    mTmpOccupied.markCells(c, false);
                }
            }
        }
        pushDistance--;
        // The cluster has been completed, now we move the whole thing over in the appropriate
        // direction.
        cluster.shift(whichEdge, 1);
    }
    boolean foundSolution = false;
    clusterRect = cluster.getBoundingRect();
    // is to ensure that completed shifted cluster lies completely within the cell layout.
    if (!fail && clusterRect.left >= 0 && clusterRect.right <= mCountX && clusterRect.top >= 0 && clusterRect.bottom <= mCountY) {
        foundSolution = true;
    } else {
        currentState.restore();
    }
    // In either case, we set the occupied array as marked for the location of the views
    for (View v : cluster.views) {
        CellAndSpan c = currentState.map.get(v);
        mTmpOccupied.markCells(c, true);
    }
    return foundSolution;
}

Example 23 with Direction

use of com.android.launcher3.userevent.nano.LauncherLogProto.Action.Direction in project android_packages_apps_Launcher3 by ProtonAOSP.

the class CellLayout method pushViewsToTempLocation.

private boolean pushViewsToTempLocation(ArrayList<View> views, Rect rectOccupiedByPotentialDrop, int[] direction, View dragView, ItemConfiguration currentState) {
    ViewCluster cluster = new ViewCluster(views, currentState);
    Rect clusterRect = cluster.getBoundingRect();
    int whichEdge;
    int pushDistance;
    boolean fail = false;
    // the cluster must be shifted.
    if (direction[0] < 0) {
        whichEdge = ViewCluster.LEFT;
        pushDistance = clusterRect.right - rectOccupiedByPotentialDrop.left;
    } else if (direction[0] > 0) {
        whichEdge = ViewCluster.RIGHT;
        pushDistance = rectOccupiedByPotentialDrop.right - clusterRect.left;
    } else if (direction[1] < 0) {
        whichEdge = ViewCluster.TOP;
        pushDistance = clusterRect.bottom - rectOccupiedByPotentialDrop.top;
    } else {
        whichEdge = ViewCluster.BOTTOM;
        pushDistance = rectOccupiedByPotentialDrop.bottom - clusterRect.top;
    }
    // Break early for invalid push distance.
    if (pushDistance <= 0) {
        return false;
    }
    // Mark the occupied state as false for the group of views we want to move.
    for (View v : views) {
        CellAndSpan c = currentState.map.get(v);
        mTmpOccupied.markCells(c, false);
    }
    // We save the current configuration -- if we fail to find a solution we will revert
    // to the initial state. The process of finding a solution modifies the configuration
    // in place, hence the need for revert in the failure case.
    currentState.save();
    // The pushing algorithm is simplified by considering the views in the order in which
    // they would be pushed by the cluster. For example, if the cluster is leading with its
    // left edge, we consider sort the views by their right edge, from right to left.
    cluster.sortConfigurationForEdgePush(whichEdge);
    while (pushDistance > 0 && !fail) {
        for (View v : currentState.sortedViews) {
            // cluster.
            if (!cluster.views.contains(v) && v != dragView) {
                if (cluster.isViewTouchingEdge(v, whichEdge)) {
                    LayoutParams lp = (LayoutParams) v.getLayoutParams();
                    if (!lp.canReorder) {
                        // The push solution includes the all apps button, this is not viable.
                        fail = true;
                        break;
                    }
                    cluster.addView(v);
                    CellAndSpan c = currentState.map.get(v);
                    // Adding view to cluster, mark it as not occupied.
                    mTmpOccupied.markCells(c, false);
                }
            }
        }
        pushDistance--;
        // The cluster has been completed, now we move the whole thing over in the appropriate
        // direction.
        cluster.shift(whichEdge, 1);
    }
    boolean foundSolution = false;
    clusterRect = cluster.getBoundingRect();
    // is to ensure that completed shifted cluster lies completely within the cell layout.
    if (!fail && clusterRect.left >= 0 && clusterRect.right <= mCountX && clusterRect.top >= 0 && clusterRect.bottom <= mCountY) {
        foundSolution = true;
    } else {
        currentState.restore();
    }
    // In either case, we set the occupied array as marked for the location of the views
    for (View v : cluster.views) {
        CellAndSpan c = currentState.map.get(v);
        mTmpOccupied.markCells(c, true);
    }
    return foundSolution;
}

Example 24 with Direction

use of com.android.launcher3.userevent.nano.LauncherLogProto.Action.Direction in project android_packages_apps_Launcher3 by ProtonAOSP.

the class RecentsView method getSplitSelectTranslation.

/**
 * Returns how much additional translation there should be for each of the child TaskViews.
 * Note that the translation can be its primary or secondary dimension.
 */
public float getSplitSelectTranslation() {
    int splitPosition = getSplitPlaceholder().getActiveSplitStagePosition();
    if (!shouldShiftThumbnailsForSplitSelect()) {
        return 0f;
    }
    PagedOrientationHandler orientationHandler = getPagedOrientationHandler();
    int direction = orientationHandler.getSplitTranslationDirectionFactor(splitPosition, mActivity.getDeviceProfile());
    return mActivity.getResources().getDimension(R.dimen.split_placeholder_size) * direction;
}

Example 25 with Direction

use of com.android.launcher3.userevent.nano.LauncherLogProto.Action.Direction in project android_packages_apps_Launcher3 by ProtonAOSP.

the class KeyboardDragAndDropView method getNextSelection.

/**
 * Focus finding logic:
 * Collect all virtual nodes in reading order (used for forward and backwards).
 * Then find the closest view by comparing the distances spatially. Since it is a move
 * operation. consider all cell sizes to be approximately of the same size.
 */
private VirtualNodeInfo getNextSelection(int direction) {
    // Collect all virtual nodes
    mDelegates.clear();
    mNodes.clear();
    Folder openFolder = Folder.getOpen(mLauncher);
    PagedView pv = openFolder == null ? mLauncher.getWorkspace() : openFolder.getContent();
    int count = pv.getPageCount();
    for (int i = 0; i < count; i++) {
        mDelegates.add(((CellLayout) pv.getChildAt(i)).getDragAndDropAccessibilityDelegate());
    }
    if (openFolder == null) {
        mDelegates.add(pv.getNextPage() + 1, mLauncher.getHotseat().getDragAndDropAccessibilityDelegate());
    }
    mDelegates.forEach(delegate -> {
        mIntList.clear();
        delegate.getVisibleVirtualViews(mIntList);
        mIntList.forEach(id -> mNodes.add(new VirtualNodeInfo(delegate, id)));
    });
    if (mNodes.isEmpty()) {
        return null;
    }
    int index = mNodes.indexOf(mCurrentSelection);
    if (mCurrentSelection == null || index < 0) {
        return null;
    }
    int totalNodes = mNodes.size();
    final ToIntBiFunction<Rect, Rect> majorAxis;
    final ToIntFunction<Rect> minorAxis;
    switch(direction) {
        case View.FOCUS_RIGHT:
            majorAxis = (source, dest) -> dest.left - source.left;
            minorAxis = Rect::centerY;
            break;
        case View.FOCUS_LEFT:
            majorAxis = (source, dest) -> source.left - dest.left;
            minorAxis = Rect::centerY;
            break;
        case View.FOCUS_UP:
            majorAxis = (source, dest) -> source.top - dest.top;
            minorAxis = Rect::centerX;
            break;
        case View.FOCUS_DOWN:
            majorAxis = (source, dest) -> dest.top - source.top;
            minorAxis = Rect::centerX;
            break;
        case View.FOCUS_FORWARD:
            return mNodes.get((index + 1) % totalNodes);
        case View.FOCUS_BACKWARD:
            return mNodes.get((index + totalNodes - 1) % totalNodes);
        default:
            // Unknown direction
            return null;
    }
    mCurrentSelection.populate(mTempNodeInfo).getBoundsInScreen(mTempRect);
    float minWeight = Float.MAX_VALUE;
    VirtualNodeInfo match = null;
    for (int i = 0; i < totalNodes; i++) {
        VirtualNodeInfo node = mNodes.get(i);
        node.populate(mTempNodeInfo).getBoundsInScreen(mTempRect2);
        int majorAxisWeight = majorAxis.applyAsInt(mTempRect, mTempRect2);
        if (majorAxisWeight <= 0) {
            continue;
        }
        int minorAxisWeight = minorAxis.applyAsInt(mTempRect2) - minorAxis.applyAsInt(mTempRect);
        float weight = majorAxisWeight * majorAxisWeight + minorAxisWeight * minorAxisWeight * MINOR_AXIS_WEIGHT;
        if (weight < minWeight) {
            minWeight = weight;
            match = node;
        }
    }
    return match;
}