Files
windowmanager/utils/include/window_helper.h
T
xingyanan 9300a2e55d divider window adapts to screen rotation
Signed-off-by: xingyanan <xingyanan2@huawei.com>
Change-Id: I191f765f730a6f4d6df44b6375b37d7898ee345c
2022-07-15 16:18:48 +08:00

494 lines
20 KiB
C++

/*
* Copyright (c) 2021-2022 Huawei Device Co., Ltd.
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#ifndef OHOS_WM_INCLUDE_WM_HELPER_H
#define OHOS_WM_INCLUDE_WM_HELPER_H
#include <vector>
#include "ability_info.h"
#include "wm_common.h"
#include "wm_common_inner.h"
#include "wm_math.h"
namespace OHOS {
namespace Rosen {
class WindowHelper {
public:
static inline bool IsMainWindow(WindowType type)
{
return (type >= WindowType::APP_MAIN_WINDOW_BASE && type < WindowType::APP_MAIN_WINDOW_END);
}
static inline bool IsSubWindow(WindowType type)
{
return (type >= WindowType::APP_SUB_WINDOW_BASE && type < WindowType::APP_SUB_WINDOW_END);
}
static inline bool IsAppWindow(WindowType type)
{
return (IsMainWindow(type) || IsSubWindow(type));
}
static inline bool IsAppFloatingWindow(WindowType type)
{
return (type == WindowType::WINDOW_TYPE_FLOAT) || (type == WindowType::WINDOW_TYPE_FLOAT_CAMERA);
}
static inline bool IsBelowSystemWindow(WindowType type)
{
return (type >= WindowType::BELOW_APP_SYSTEM_WINDOW_BASE && type < WindowType::BELOW_APP_SYSTEM_WINDOW_END);
}
static inline bool IsAboveSystemWindow(WindowType type)
{
return (type >= WindowType::ABOVE_APP_SYSTEM_WINDOW_BASE && type < WindowType::ABOVE_APP_SYSTEM_WINDOW_END);
}
static inline bool IsSystemWindow(WindowType type)
{
return (IsBelowSystemWindow(type) || IsAboveSystemWindow(type));
}
static inline bool IsMainFloatingWindow(WindowType type, WindowMode mode)
{
return ((IsMainWindow(type)) && (mode == WindowMode::WINDOW_MODE_FLOATING));
}
static inline bool IsMainFullScreenWindow(WindowType type, WindowMode mode)
{
return ((IsMainWindow(type)) && (mode == WindowMode::WINDOW_MODE_FULLSCREEN));
}
static inline bool IsMainNotFloatingWindow(WindowType type, WindowMode mode)
{
return ((IsMainWindow(type)) && (mode != WindowMode::WINDOW_MODE_FLOATING));
}
static inline bool IsFloatingWindow(WindowMode mode)
{
return mode == WindowMode::WINDOW_MODE_FLOATING;
}
static inline bool IsSystemBarWindow(WindowType type)
{
return (type == WindowType::WINDOW_TYPE_STATUS_BAR || type == WindowType::WINDOW_TYPE_NAVIGATION_BAR);
}
static inline bool IsOverlayWindow(WindowType type)
{
return (type == WindowType::WINDOW_TYPE_STATUS_BAR
|| type == WindowType::WINDOW_TYPE_NAVIGATION_BAR
|| type == WindowType::WINDOW_TYPE_INPUT_METHOD_FLOAT);
}
static inline bool IsFullScreenWindow(WindowMode mode)
{
return mode == WindowMode::WINDOW_MODE_FULLSCREEN;
}
static inline bool IsSplitWindowMode(WindowMode mode)
{
return mode == WindowMode::WINDOW_MODE_SPLIT_PRIMARY || mode == WindowMode::WINDOW_MODE_SPLIT_SECONDARY;
}
static inline bool IsValidWindowMode(WindowMode mode)
{
return mode == WindowMode::WINDOW_MODE_FULLSCREEN || mode == WindowMode::WINDOW_MODE_SPLIT_PRIMARY ||
mode == WindowMode::WINDOW_MODE_SPLIT_SECONDARY || mode == WindowMode::WINDOW_MODE_FLOATING ||
mode == WindowMode::WINDOW_MODE_PIP;
}
static inline bool IsValidWindowBlurLevel(WindowBlurLevel level)
{
return (level >= WindowBlurLevel::WINDOW_BLUR_OFF && level <= WindowBlurLevel::WINDOW_BLUR_HIGH);
}
static inline bool IsEmptyRect(const Rect& r)
{
return (r.posX_ == 0 && r.posY_ == 0 && r.width_ == 0 && r.height_ == 0);
}
static inline bool IsLandscapeRect(const Rect& r)
{
return r.width_ > r.height_;
}
static inline bool HasOverlap(const Rect& r1, const Rect& r2)
{
int32_t r1XEnd = r1.posX_ + r1.width_;
int32_t r1YEnd = r1.posY_ + r1.height_;
int32_t r2XEnd = r2.posX_ + r2.width_;
int32_t r2YEnd = r2.posY_ + r2.height_;
return !(r1XEnd < r2.posX_ || r1.posX_ > r2XEnd || r1YEnd < r2.posY_ || r1.posY_ > r2YEnd);
}
static Rect GetOverlap(const Rect& rect1, const Rect& rect2, const int offsetX, const int offsetY)
{
int32_t x_begin = std::max(rect1.posX_, rect2.posX_);
int32_t x_end = std::min(rect1.posX_ + static_cast<int32_t>(rect1.width_),
rect2.posX_ + static_cast<int32_t>(rect2.width_));
int32_t y_begin = std::max(rect1.posY_, rect2.posY_);
int32_t y_end = std::min(rect1.posY_ + static_cast<int32_t>(rect1.height_),
rect2.posY_ + static_cast<int32_t>(rect2.height_));
if (y_begin >= y_end || x_begin >= x_end) {
return { 0, 0, 0, 0 };
}
return { x_begin - offsetX, y_begin - offsetY,
static_cast<uint32_t>(x_end - x_begin), static_cast<uint32_t>(y_end - y_begin) };
}
static bool IsWindowModeSupported(uint32_t modeSupportInfo, WindowMode mode)
{
switch (mode) {
case WindowMode::WINDOW_MODE_FULLSCREEN:
return WindowModeSupport::WINDOW_MODE_SUPPORT_FULLSCREEN & modeSupportInfo;
case WindowMode::WINDOW_MODE_FLOATING:
return WindowModeSupport::WINDOW_MODE_SUPPORT_FLOATING & modeSupportInfo;
case WindowMode::WINDOW_MODE_SPLIT_PRIMARY:
return WindowModeSupport::WINDOW_MODE_SUPPORT_SPLIT_PRIMARY & modeSupportInfo;
case WindowMode::WINDOW_MODE_SPLIT_SECONDARY:
return WindowModeSupport::WINDOW_MODE_SUPPORT_SPLIT_SECONDARY & modeSupportInfo;
case WindowMode::WINDOW_MODE_PIP:
return WindowModeSupport::WINDOW_MODE_SUPPORT_PIP & modeSupportInfo;
default:
return true;
}
}
static WindowMode GetWindowModeFromModeSupportInfo(uint32_t modeSupportInfo)
{
// get the binary number consists of the last 1 and 0 behind it
uint32_t windowModeSupport = modeSupportInfo & (~modeSupportInfo + 1);
switch (windowModeSupport) {
case WindowModeSupport::WINDOW_MODE_SUPPORT_FULLSCREEN:
return WindowMode::WINDOW_MODE_FULLSCREEN;
case WindowModeSupport::WINDOW_MODE_SUPPORT_FLOATING:
return WindowMode::WINDOW_MODE_FLOATING;
case WindowModeSupport::WINDOW_MODE_SUPPORT_SPLIT_PRIMARY:
return WindowMode::WINDOW_MODE_SPLIT_PRIMARY;
case WindowModeSupport::WINDOW_MODE_SUPPORT_SPLIT_SECONDARY:
return WindowMode::WINDOW_MODE_SPLIT_SECONDARY;
case WindowModeSupport::WINDOW_MODE_SUPPORT_PIP:
return WindowMode::WINDOW_MODE_PIP;
default:
return WindowMode::WINDOW_MODE_UNDEFINED;
}
}
static void ConvertSupportModesToSupportInfo(uint32_t& modeSupportInfo,
const std::vector<AppExecFwk::SupportWindowMode>& supportModes)
{
for (auto& mode : supportModes) {
if (mode == AppExecFwk::SupportWindowMode::FULLSCREEN) {
modeSupportInfo |= WindowModeSupport::WINDOW_MODE_SUPPORT_FULLSCREEN;
} else if (mode == AppExecFwk::SupportWindowMode::SPLIT) {
modeSupportInfo |= (WindowModeSupport::WINDOW_MODE_SUPPORT_SPLIT_PRIMARY |
WindowModeSupport::WINDOW_MODE_SUPPORT_SPLIT_SECONDARY);
} else if (mode == AppExecFwk::SupportWindowMode::FLOATING) {
modeSupportInfo |= WindowModeSupport::WINDOW_MODE_SUPPORT_FLOATING;
}
}
}
static Rect GetFixedWindowRectByLimitSize(const Rect& oriDstRect, const Rect& lastRect, bool isVertical,
float virtualPixelRatio)
{
uint32_t minVerticalFloatingW = static_cast<uint32_t>(MIN_VERTICAL_FLOATING_WIDTH * virtualPixelRatio);
uint32_t minVerticalFloatingH = static_cast<uint32_t>(MIN_VERTICAL_FLOATING_HEIGHT * virtualPixelRatio);
Rect dstRect = oriDstRect;
// fix minimum size
if (isVertical) {
dstRect.width_ = std::max(minVerticalFloatingW, oriDstRect.width_);
dstRect.height_ = std::max(minVerticalFloatingH, oriDstRect.height_);
} else {
dstRect.width_ = std::max(minVerticalFloatingH, oriDstRect.width_);
dstRect.height_ = std::max(minVerticalFloatingW, oriDstRect.height_);
}
// fix maximum size
dstRect.width_ = std::min(static_cast<uint32_t>(MAX_FLOATING_SIZE * virtualPixelRatio), dstRect.width_);
dstRect.height_ = std::min(static_cast<uint32_t>(MAX_FLOATING_SIZE * virtualPixelRatio), dstRect.height_);
// limit position by fixed width or height
if (oriDstRect.posX_ != lastRect.posX_) {
dstRect.posX_ = oriDstRect.posX_ + static_cast<int32_t>(oriDstRect.width_) -
static_cast<int32_t>(dstRect.width_);
}
if (oriDstRect.posY_ != lastRect.posY_) {
dstRect.posY_ = oriDstRect.posY_ + static_cast<int32_t>(oriDstRect.height_) -
static_cast<int32_t>(dstRect.height_);
}
return dstRect;
}
static bool IsPointInTargetRect(int32_t pointPosX, int32_t pointPosY, const Rect& targetRect)
{
if ((pointPosX > targetRect.posX_) &&
(pointPosX < (targetRect.posX_ + static_cast<int32_t>(targetRect.width_))) &&
(pointPosY > targetRect.posY_) &&
(pointPosY < (targetRect.posY_ + static_cast<int32_t>(targetRect.height_)))) {
return true;
}
return false;
}
static bool IsPointInWindowExceptCorner(int32_t pointPosX, int32_t pointPosY, const Rect& rectExceptCorner)
{
if ((pointPosX > rectExceptCorner.posX_ &&
pointPosX < (rectExceptCorner.posX_ + static_cast<int32_t>(rectExceptCorner.width_))) ||
(pointPosY > rectExceptCorner.posY_ &&
pointPosY < (rectExceptCorner.posY_ + static_cast<int32_t>(rectExceptCorner.height_)))) {
return true;
}
return false;
}
static inline bool IsSwitchCascadeReason(WindowUpdateReason reason)
{
return (reason >= WindowUpdateReason::NEED_SWITCH_CASCADE_BASE) &&
(reason < WindowUpdateReason::NEED_SWITCH_CASCADE_END);
}
static AvoidPosType GetAvoidPosType(const Rect& rect, uint32_t displayWidth, uint32_t displayHeight)
{
if (rect.width_ == displayWidth) {
if (rect.posY_ == 0) {
return AvoidPosType::AVOID_POS_TOP;
} else {
return AvoidPosType::AVOID_POS_BOTTOM;
}
} else if (rect.height_ == displayHeight) {
if (rect.posX_ == 0) {
return AvoidPosType::AVOID_POS_LEFT;
} else {
return AvoidPosType::AVOID_POS_RIGHT;
}
}
return AvoidPosType::AVOID_POS_UNKNOWN;
}
static inline bool IsNumber(std::string str)
{
if (str.size() == 0) {
return false;
}
for (int32_t i = 0; i < static_cast<int32_t>(str.size()); i++) {
if (str.at(i) < '0' || str.at(i) > '9') {
return false;
}
}
return true;
}
static inline bool IsFloatingNumber(std::string str)
{
if (str.size() == 0) {
return false;
}
for (int32_t i = 0; i < static_cast<int32_t>(str.size()); i++) {
if ((str.at(i) < '0' || str.at(i) > '9') &&
(str.at(i) != '.' || std::count(str.begin(), str.end(), '.') > 1)) {
return false;
}
}
return true;
}
static std::vector<std::string> Split(std::string str, std::string pattern)
{
int32_t position;
std::vector<std::string> result;
str += pattern;
int32_t length = static_cast<int32_t>(str.size());
for (int32_t i = 0; i < length; i++) {
position = static_cast<int32_t>(str.find(pattern, i));
if (position < length) {
std::string tmp = str.substr(i, position - i);
result.push_back(tmp);
i = position + static_cast<int32_t>(pattern.size()) - 1;
}
}
return result;
}
static PointInfo CalculateOriginPosition(const Rect& rOrigin, const Rect& rActial, const PointInfo& pos)
{
PointInfo ret = pos;
ret.x += rActial.posX_ - pos.x;
ret.y += rActial.posY_ - pos.y;
ret.x += rOrigin.posX_ - rActial.posX_;
ret.y += rOrigin.posY_ - rActial.posY_;
ret.x += (pos.x - rActial.posX_) * rOrigin.width_ / rActial.width_;
ret.y += (pos.y - rActial.posY_) * rOrigin.height_ / rActial.height_;
return ret;
}
// Transform a point at screen to its oringin position in 3D world and project to xy plane
// A screen point only has x and y component, so we need a plane to calculate its z component.
// | -- -- -- 0 |
// | -- -- -- 0 |
// There is no need to unify w component since the matrix is like | -- -- -- 0 |
// | -- -- -- 1 |
static PointInfo CalculateOriginPosition(const TransformHelper::Matrix4& transformMat,
const TransformHelper::Plane& plane, const PointInfo& pointPos)
{
TransformHelper::Matrix4 invertMat = transformMat;
invertMat.Invert();
TransformHelper::Vector3 pointAtPlane;
pointAtPlane.x_ = static_cast<float>(pointPos.x);
pointAtPlane.y_ = static_cast<float>(pointPos.y);
pointAtPlane.z_ = plane.ComponentZ(pointAtPlane.x_, pointAtPlane.y_);
TransformHelper::Vector3 originPos = TransformHelper::Transform(pointAtPlane, invertMat);
return PointInfo { static_cast<uint32_t>(originPos.x_), static_cast<uint32_t>(originPos.y_) };
}
static TransformHelper::Matrix4 ComputeRectTransformMat4(const Transform& transform, const Rect& rect)
{
TransformHelper::Vector3 pivotPos = {
rect.posX_ + transform.pivotX_ * rect.width_, rect.posY_ + transform.pivotY_ * rect.height_, 0 };
// move pivot point to (0,0,0)
TransformHelper::Matrix4 ret = TransformHelper::CreateTranslation(-pivotPos);
// set scale
if ((transform.scaleX_ - 1) || (transform.scaleY_ - 1)) {
ret *= TransformHelper::CreateScale(transform.scaleX_, transform.scaleY_, 1.0f);
}
// set rotation
if (transform.rotationX_) {
ret *= TransformHelper::CreateRotationX(MathHelper::ToRadians(transform.rotationX_));
}
if (transform.rotationY_) {
ret *= TransformHelper::CreateRotationY(MathHelper::ToRadians(transform.rotationY_));
}
if (transform.rotationZ_) {
ret *= TransformHelper::CreateRotationZ(MathHelper::ToRadians(transform.rotationZ_));
}
// set translation
if (transform.translateX_ || transform.translateY_ || transform.translateZ_) {
ret *= TransformHelper::CreateTranslation(TransformHelper::Vector3(transform.translateX_,
transform.translateY_, transform.translateZ_));
}
// move pivot point to old position
ret *= TransformHelper::CreateTranslation(pivotPos);
return ret;
}
// Transform rect by matrix and get the circumscribed rect
static Rect TransformRect(const TransformHelper::Matrix4& transformMat, const Rect& rect)
{
TransformHelper::Vector3 a = TransformHelper::Transform(
TransformHelper::Vector3(rect.posX_, rect.posY_, 0), transformMat);
TransformHelper::Vector3 b = TransformHelper::Transform(
TransformHelper::Vector3(rect.posX_ + rect.width_, rect.posY_, 0), transformMat);
TransformHelper::Vector3 c = TransformHelper::Transform(
TransformHelper::Vector3(rect.posX_, rect.posY_ + rect.height_, 0), transformMat);
TransformHelper::Vector3 d = b + c - a;
// Return smallest rect involve transformed rect(abcd)
int32_t xmin = MathHelper::Min(a.x_, b.x_, c.x_, d.x_);
int32_t ymin = MathHelper::Min(a.y_, b.y_, c.y_, d.y_);
int32_t xmax = MathHelper::Max(a.x_, b.x_, c.x_, d.x_);
int32_t ymax = MathHelper::Max(a.y_, b.y_, c.y_, d.y_);
uint32_t w = static_cast<uint32_t>(xmax - xmin);
uint32_t h = static_cast<uint32_t>(ymax - ymin);
return Rect { xmin, ymin, w, h };
}
static TransformHelper::Vector2 CalculateHotZoneScale(const TransformHelper::Matrix4& transformMat,
const TransformHelper::Plane& plane)
{
TransformHelper::Vector2 hotZoneScale;
TransformHelper::Vector3 a = TransformHelper::Transform(TransformHelper::Vector3(0, 0, 0),
transformMat);
TransformHelper::Vector3 b = TransformHelper::Transform(TransformHelper::Vector3(1, 0, 0),
transformMat);
TransformHelper::Vector3 c = TransformHelper::Transform(TransformHelper::Vector3(0, 1, 0),
transformMat);
TransformHelper::Vector3 scale = transformMat.GetScale();
hotZoneScale.x_ = scale.x_ * plane.ParallelDistanceGrad(a, c);
hotZoneScale.y_ = scale.y_ * plane.ParallelDistanceGrad(a, b);
if (std::isnan(hotZoneScale.x_) || std::isnan(hotZoneScale.y_)) {
return TransformHelper::Vector2(1, 1);
} else {
return hotZoneScale;
}
}
static bool CalculateTouchHotAreas(const Rect& windowRect, const std::vector<Rect>& requestRects,
std::vector<Rect>& outRects)
{
bool isOk = true;
for (const auto& rect : requestRects) {
if (rect.posX_ < 0 || rect.posY_ < 0 || rect.width_ == 0 || rect.height_ == 0) {
return false;
}
Rect hotArea;
if (rect.posX_ >= static_cast<int32_t>(windowRect.width_) ||
rect.posY_ >= static_cast<int32_t>(windowRect.height_)) {
isOk = false;
continue;
}
hotArea.posX_ = windowRect.posX_ + rect.posX_;
hotArea.posY_ = windowRect.posY_ + rect.posY_;
hotArea.width_ = static_cast<uint32_t>(std::min(hotArea.posX_ + rect.width_,
windowRect.posX_ + windowRect.width_) - hotArea.posX_);
hotArea.height_ = static_cast<uint32_t>(std::min(hotArea.posY_ + rect.height_,
windowRect.posY_ + windowRect.height_) - hotArea.posY_);
outRects.emplace_back(hotArea);
}
return isOk;
}
static bool IsRectSatisfiedWithSizeLimits(const Rect& rect, const WindowSizeLimits& sizeLimits)
{
if (rect.height_ == 0) {
return false;
}
auto curRatio = static_cast<float>(rect.width_) / static_cast<float>(rect.height_);
if (sizeLimits.minWidth_ <= rect.width_ && rect.width_ <= sizeLimits.maxWidth_ &&
sizeLimits.minHeight_ <= rect.height_ && rect.height_ <= sizeLimits.maxHeight_ &&
sizeLimits.minRatio_ <= curRatio && curRatio <= sizeLimits.maxRatio_) {
return true;
}
return false;
}
static bool IsOnlySupportSplitAndShowWhenLocked(bool isShowWhenLocked, uint32_t modeSupportInfo)
{
uint32_t splitModeInfo = (WindowModeSupport::WINDOW_MODE_SUPPORT_SPLIT_PRIMARY |
WindowModeSupport::WINDOW_MODE_SUPPORT_SPLIT_SECONDARY);
if (isShowWhenLocked && (splitModeInfo == modeSupportInfo)) {
return true;
}
return false;
}
static bool IsInvalidWindowInTileLayoutMode(uint32_t supportModeInfo, WindowLayoutMode layoutMode)
{
if ((!IsWindowModeSupported(supportModeInfo, WindowMode::WINDOW_MODE_FLOATING)) &&
(layoutMode == WindowLayoutMode::TILE)) {
return true;
}
return false;
}
private:
WindowHelper() = default;
~WindowHelper() = default;
};
} // namespace OHOS
} // namespace Rosen
#endif // OHOS_WM_INCLUDE_WM_HELPER_H