core: move parts of the animation system to hyprutils (#8868)

* core: change animation manager to use Hyprutils::Animation

* config: move animation config to hyprutils animation tree

* use g_pAnimationManager->createAnimation and the new PHLANIMVAR template

* core: use CGenericAnimatedVariabled::{enabled,setConfig,getStyle} and adapt callbacks

* core: adapt animated variable usage (dereference the shared pointer)

* misc: bump CMakeLists to hyprutils 0.3.3
This commit is contained in:
Maximilian Seidler 2025-01-07 17:55:14 +00:00 committed by GitHub
parent c7086f936a
commit 5642ed331d
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44 changed files with 1031 additions and 1664 deletions

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@ -1,87 +0,0 @@
#include "AnimatedVariable.hpp"
#include "../managers/AnimationManager.hpp"
#include "../config/ConfigManager.hpp"
CBaseAnimatedVariable::CBaseAnimatedVariable(eAnimatedVarType type) : m_Type(type) {
; // dummy var
}
void CBaseAnimatedVariable::create(SAnimationPropertyConfig* pAnimConfig, PHLWINDOW pWindow, eAVarDamagePolicy policy) {
m_eDamagePolicy = policy;
m_pConfig = pAnimConfig;
m_pWindow = pWindow;
m_bDummy = false;
}
void CBaseAnimatedVariable::create(SAnimationPropertyConfig* pAnimConfig, PHLLS pLayer, eAVarDamagePolicy policy) {
m_eDamagePolicy = policy;
m_pConfig = pAnimConfig;
m_pLayer = pLayer;
m_bDummy = false;
}
void CBaseAnimatedVariable::create(SAnimationPropertyConfig* pAnimConfig, PHLWORKSPACE pWorkspace, eAVarDamagePolicy policy) {
m_eDamagePolicy = policy;
m_pConfig = pAnimConfig;
m_pWorkspace = pWorkspace;
m_bDummy = false;
}
void CBaseAnimatedVariable::create(SAnimationPropertyConfig* pAnimConfig, eAVarDamagePolicy policy) {
m_eDamagePolicy = policy;
m_pConfig = pAnimConfig;
m_bDummy = false;
}
CBaseAnimatedVariable::~CBaseAnimatedVariable() {
unregister();
}
void CBaseAnimatedVariable::unregister() {
if (!g_pAnimationManager)
return;
std::erase_if(g_pAnimationManager->m_vAnimatedVariables, [&](const auto& other) { return other == this; });
m_bIsRegistered = false;
disconnectFromActive();
}
void CBaseAnimatedVariable::registerVar() {
if (!m_bIsRegistered)
g_pAnimationManager->m_vAnimatedVariables.push_back(this);
m_bIsRegistered = true;
}
float CBaseAnimatedVariable::getPercent() {
const auto DURATIONPASSED = std::chrono::duration_cast<std::chrono::milliseconds>(std::chrono::steady_clock::now() - animationBegin).count();
return std::clamp((DURATIONPASSED / 100.f) / m_pConfig->pValues->internalSpeed, 0.f, 1.f);
}
float CBaseAnimatedVariable::getCurveValue() {
if (!m_bIsBeingAnimated)
return 1.f;
const auto SPENT = getPercent();
if (SPENT >= 1.f)
return 1.f;
return g_pAnimationManager->getBezier(m_pConfig->pValues->internalBezier)->getYForPoint(SPENT);
}
void CBaseAnimatedVariable::connectToActive() {
g_pAnimationManager->scheduleTick(); // otherwise the animation manager will never pick this up
if (!m_bIsConnectedToActive)
g_pAnimationManager->m_vActiveAnimatedVariables.push_back(this);
m_bIsConnectedToActive = true;
}
void CBaseAnimatedVariable::disconnectFromActive() {
std::erase_if(g_pAnimationManager->m_vActiveAnimatedVariables, [&](const auto& other) { return other == this; });
m_bIsConnectedToActive = false;
}

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@ -1,15 +1,18 @@
#pragma once
#include <functional>
#include <any>
#include <chrono>
#include <type_traits>
#include "math/Math.hpp"
#include <hyprutils/animation/AnimatedVariable.hpp>
#include "Color.hpp"
#include "../defines.hpp"
#include "../debug/Log.hpp"
#include "../desktop/DesktopTypes.hpp"
enum eAVarDamagePolicy : int8_t {
AVARDAMAGE_NONE = -1,
AVARDAMAGE_ENTIRE = 0,
AVARDAMAGE_BORDER,
AVARDAMAGE_SHADOW
};
enum eAnimatedVarType : int8_t {
AVARTYPE_INVALID = -1,
AVARTYPE_FLOAT,
@ -42,20 +45,6 @@ struct STypeToAnimatedVarType_t<CHyprColor> {
template <class T>
inline constexpr eAnimatedVarType typeToeAnimatedVarType = STypeToAnimatedVarType_t<T>::value;
enum eAVarDamagePolicy : int8_t {
AVARDAMAGE_NONE = -1,
AVARDAMAGE_ENTIRE = 0,
AVARDAMAGE_BORDER,
AVARDAMAGE_SHADOW
};
class CAnimationManager;
struct SAnimationPropertyConfig;
class CHyprRenderer;
class CWindow;
class CWorkspace;
class CLayerSurface;
// Utility to define a concept as a list of possible type
template <class T, class... U>
concept OneOf = (... or std::same_as<T, U>);
@ -66,245 +55,19 @@ concept OneOf = (... or std::same_as<T, U>);
template <class T>
concept Animable = OneOf<T, Vector2D, float, CHyprColor>;
class CBaseAnimatedVariable {
public:
CBaseAnimatedVariable(eAnimatedVarType type);
void create(SAnimationPropertyConfig* pAnimConfig, PHLWINDOW pWindow, eAVarDamagePolicy policy);
void create(SAnimationPropertyConfig* pAnimConfig, PHLLS pLayer, eAVarDamagePolicy policy);
void create(SAnimationPropertyConfig* pAnimConfig, PHLWORKSPACE pWorkspace, eAVarDamagePolicy policy);
void create(SAnimationPropertyConfig* pAnimConfig, eAVarDamagePolicy policy);
struct SAnimationContext {
PHLWINDOWREF pWindow;
PHLWORKSPACEREF pWorkspace;
PHLLSREF pLayer;
CBaseAnimatedVariable(const CBaseAnimatedVariable&) = delete;
CBaseAnimatedVariable(CBaseAnimatedVariable&&) = delete;
CBaseAnimatedVariable& operator=(const CBaseAnimatedVariable&) = delete;
CBaseAnimatedVariable& operator=(CBaseAnimatedVariable&&) = delete;
virtual ~CBaseAnimatedVariable();
void unregister();
void registerVar();
virtual void warp(bool endCallback = true) = 0;
//
void setConfig(SAnimationPropertyConfig* pConfig) {
m_pConfig = pConfig;
}
SAnimationPropertyConfig* getConfig() {
return m_pConfig;
}
/* returns the spent (completion) % */
float getPercent();
/* returns the current curve value */
float getCurveValue();
// checks if an animation is in progress
bool isBeingAnimated() const {
return m_bIsBeingAnimated;
}
/* sets a function to be ran when the animation finishes.
if an animation is not running, runs instantly.
if "remove" is set to true, will remove the callback when ran. */
void setCallbackOnEnd(std::function<void(void* thisptr)> func, bool remove = true) {
m_fEndCallback = std::move(func);
m_bRemoveEndAfterRan = remove;
if (!isBeingAnimated())
onAnimationEnd();
}
/* sets a function to be ran when an animation is started.
if "remove" is set to true, will remove the callback when ran. */
void setCallbackOnBegin(std::function<void(void* thisptr)> func, bool remove = true) {
m_fBeginCallback = std::move(func);
m_bRemoveBeginAfterRan = remove;
}
/* Sets the update callback, called every time the value is animated and a step is done
Warning: calling unregisterVar/registerVar in this handler will cause UB */
void setUpdateCallback(std::function<void(void* thisptr)> func) {
m_fUpdateCallback = std::move(func);
}
/* resets all callbacks. Does not call any. */
void resetAllCallbacks() {
m_fBeginCallback = nullptr;
m_fEndCallback = nullptr;
m_fUpdateCallback = nullptr;
m_bRemoveBeginAfterRan = false;
m_bRemoveEndAfterRan = false;
}
PHLWINDOW getWindow() {
return m_pWindow.lock();
}
protected:
PHLWINDOWREF m_pWindow;
PHLWORKSPACEREF m_pWorkspace;
PHLLSREF m_pLayer;
SAnimationPropertyConfig* m_pConfig = nullptr;
bool m_bDummy = true;
bool m_bIsRegistered = false;
bool m_bIsBeingAnimated = false;
std::chrono::steady_clock::time_point animationBegin;
eAVarDamagePolicy m_eDamagePolicy = AVARDAMAGE_NONE;
eAnimatedVarType m_Type;
bool m_bRemoveEndAfterRan = true;
bool m_bRemoveBeginAfterRan = true;
std::function<void(void* thisptr)> m_fEndCallback;
std::function<void(void* thisptr)> m_fBeginCallback;
std::function<void(void* thisptr)> m_fUpdateCallback;
bool m_bIsConnectedToActive = false;
void connectToActive();
void disconnectFromActive();
// methods
void onAnimationEnd() {
m_bIsBeingAnimated = false;
disconnectFromActive();
if (m_fEndCallback) {
// loading m_bRemoveEndAfterRan before calling the callback allows the callback to delete this animation safely if it is false.
auto removeEndCallback = m_bRemoveEndAfterRan;
m_fEndCallback(this);
if (removeEndCallback)
m_fEndCallback = nullptr; // reset
}
}
void onAnimationBegin() {
m_bIsBeingAnimated = true;
connectToActive();
if (m_fBeginCallback) {
m_fBeginCallback(this);
if (m_bRemoveBeginAfterRan)
m_fBeginCallback = nullptr; // reset
}
}
friend class CAnimationManager;
friend class CWorkspace;
friend class CLayerSurface;
friend class CHyprRenderer;
eAVarDamagePolicy eDamagePolicy = AVARDAMAGE_NONE;
};
template <Animable VarType>
class CAnimatedVariable : public CBaseAnimatedVariable {
public:
CAnimatedVariable() : CBaseAnimatedVariable(typeToeAnimatedVarType<VarType>) {
;
} // dummy var
using CAnimatedVariable = Hyprutils::Animation::CGenericAnimatedVariable<VarType, SAnimationContext>;
void create(const VarType& value, SAnimationPropertyConfig* pAnimConfig, PHLWINDOW pWindow, eAVarDamagePolicy policy) {
create(pAnimConfig, pWindow, policy);
m_Value = value;
m_Goal = value;
}
void create(const VarType& value, SAnimationPropertyConfig* pAnimConfig, PHLLS pLayer, eAVarDamagePolicy policy) {
create(pAnimConfig, pLayer, policy);
m_Value = value;
m_Goal = value;
}
void create(const VarType& value, SAnimationPropertyConfig* pAnimConfig, PHLWORKSPACE pWorkspace, eAVarDamagePolicy policy) {
create(pAnimConfig, pWorkspace, policy);
m_Value = value;
m_Goal = value;
}
void create(const VarType& value, SAnimationPropertyConfig* pAnimConfig, eAVarDamagePolicy policy) {
create(pAnimConfig, policy);
m_Value = value;
m_Goal = value;
}
template <Animable VarType>
using PHLANIMVAR = SP<CAnimatedVariable<VarType>>;
using CBaseAnimatedVariable::create;
CAnimatedVariable(const CAnimatedVariable&) = delete;
CAnimatedVariable(CAnimatedVariable&&) = delete;
CAnimatedVariable& operator=(const CAnimatedVariable&) = delete;
CAnimatedVariable& operator=(CAnimatedVariable&&) = delete;
~CAnimatedVariable() = default;
// gets the current vector value (real time)
const VarType& value() const {
return m_Value;
}
// gets the goal vector value
const VarType& goal() const {
return m_Goal;
}
CAnimatedVariable& operator=(const VarType& v) {
if (v == m_Goal)
return *this;
m_Goal = v;
animationBegin = std::chrono::steady_clock::now();
m_Begun = m_Value;
onAnimationBegin();
return *this;
}
// Sets the actual stored value, without affecting the goal, but resets the timer
void setValue(const VarType& v) {
if (v == m_Value)
return;
m_Value = v;
animationBegin = std::chrono::steady_clock::now();
m_Begun = m_Value;
onAnimationBegin();
}
// Sets the actual value and goal
void setValueAndWarp(const VarType& v) {
m_Goal = v;
m_bIsBeingAnimated = true;
warp();
}
void warp(bool endCallback = true) override {
if (!m_bIsBeingAnimated)
return;
m_Value = m_Goal;
m_bIsBeingAnimated = false;
if (m_fUpdateCallback)
m_fUpdateCallback(this);
if (endCallback)
onAnimationEnd();
}
private:
VarType m_Value{};
VarType m_Goal{};
VarType m_Begun{};
// owners
friend class CAnimationManager;
friend class CWorkspace;
friend class CLayerSurface;
friend class CHyprRenderer;
};
template <Animable VarType>
using PHLANIMVARREF = WP<CAnimatedVariable<VarType>>;

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@ -1,90 +0,0 @@
#include "BezierCurve.hpp"
#include "../debug/Log.hpp"
#include "../macros.hpp"
#include <chrono>
#include <algorithm>
void CBezierCurve::setup(std::vector<Vector2D>* pVec) {
const auto BEGIN = std::chrono::high_resolution_clock::now();
// Avoid reallocations by reserving enough memory upfront
m_vPoints.resize(pVec->size() + 2);
m_vPoints[0] = Vector2D(0, 0); // Start point
size_t index = 1; // Start after the first element
for (const auto& vec : *pVec) {
if (index < m_vPoints.size() - 1) { // Bounds check to ensure safety
m_vPoints[index] = vec;
++index;
}
}
m_vPoints.back() = Vector2D(1, 1); // End point
RASSERT(m_vPoints.size() == 4, "CBezierCurve only supports cubic beziers! (points num: {})", m_vPoints.size());
// bake BAKEDPOINTS points for faster lookups
// T -> X ( / BAKEDPOINTS )
for (int i = 0; i < BAKEDPOINTS; ++i) {
float const t = (i + 1) / (float)BAKEDPOINTS;
m_aPointsBaked[i] = Vector2D(getXForT(t), getYForT(t));
}
const auto ELAPSEDUS = std::chrono::duration_cast<std::chrono::nanoseconds>(std::chrono::high_resolution_clock::now() - BEGIN).count() / 1000.f;
const auto POINTSSIZE = m_aPointsBaked.size() * sizeof(m_aPointsBaked[0]) / 1000.f;
const auto BEGINCALC = std::chrono::high_resolution_clock::now();
for (int j = 1; j < 10; ++j) {
float i = j / 10.0f;
getYForPoint(i);
}
const auto ELAPSEDCALCAVG = std::chrono::duration_cast<std::chrono::nanoseconds>(std::chrono::high_resolution_clock::now() - BEGINCALC).count() / 1000.f / 10.f;
Debug::log(LOG, "Created a bezier curve, baked {} points, mem usage: {:.2f}kB, time to bake: {:.2f}µs. Estimated average calc time: {:.2f}µs.", BAKEDPOINTS, POINTSSIZE,
ELAPSEDUS, ELAPSEDCALCAVG);
}
float CBezierCurve::getXForT(float const& t) const {
float t2 = t * t;
float t3 = t2 * t;
return 3 * t * (1 - t) * (1 - t) * m_vPoints[1].x + 3 * t2 * (1 - t) * m_vPoints[2].x + t3 * m_vPoints[3].x;
}
float CBezierCurve::getYForT(float const& t) const {
float t2 = t * t;
float t3 = t2 * t;
return 3 * t * (1 - t) * (1 - t) * m_vPoints[1].y + 3 * t2 * (1 - t) * m_vPoints[2].y + t3 * m_vPoints[3].y;
}
// Todo: this probably can be done better and faster
float CBezierCurve::getYForPoint(float const& x) const {
if (x >= 1.f)
return 1.f;
if (x <= 0.f)
return 0.f;
int index = 0;
bool below = true;
for (int step = (BAKEDPOINTS + 1) / 2; step > 0; step /= 2) {
if (below)
index += step;
else
index -= step;
below = m_aPointsBaked[index].x < x;
}
int lowerIndex = index - (!below || index == BAKEDPOINTS - 1);
// in the name of performance i shall make a hack
const auto LOWERPOINT = &m_aPointsBaked[lowerIndex];
const auto UPPERPOINT = &m_aPointsBaked[lowerIndex + 1];
const auto PERCINDELTA = (x - LOWERPOINT->x) / (UPPERPOINT->x - LOWERPOINT->x);
if (std::isnan(PERCINDELTA) || std::isinf(PERCINDELTA)) // can sometimes happen for VERY small x
return 0.f;
return LOWERPOINT->y + (UPPERPOINT->y - LOWERPOINT->y) * PERCINDELTA;
}

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@ -1,28 +0,0 @@
#pragma once
#include <vector>
#include <array>
#include <vector>
#include "math/Math.hpp"
constexpr int BAKEDPOINTS = 255;
constexpr float INVBAKEDPOINTS = 1.f / BAKEDPOINTS;
// an implementation of a cubic bezier curve
// might do better later
class CBezierCurve {
public:
// sets up the bezier curve.
// this EXCLUDES the 0,0 and 1,1 points,
void setup(std::vector<Vector2D>* points);
float getYForT(float const& t) const;
float getXForT(float const& t) const;
float getYForPoint(float const& x) const;
private:
// this INCLUDES the 0,0 and 1,1 points.
std::vector<Vector2D> m_vPoints;
std::array<Vector2D, BAKEDPOINTS> m_aPointsBaked;
};

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@ -1127,16 +1127,16 @@ void CMonitor::setSpecialWorkspace(const PHLWORKSPACE& pWorkspace) {
if (w->m_bIsFloating && !VECINRECT(MIDDLE, vecPosition.x, vecPosition.y, vecPosition.x + vecSize.x, vecPosition.y + vecSize.y) && !w->isX11OverrideRedirect()) {
// if it's floating and the middle isnt on the current mon, move it to the center
const auto PMONFROMMIDDLE = g_pCompositor->getMonitorFromVector(MIDDLE);
Vector2D pos = w->m_vRealPosition.goal();
Vector2D pos = w->m_vRealPosition->goal();
if (!VECINRECT(MIDDLE, PMONFROMMIDDLE->vecPosition.x, PMONFROMMIDDLE->vecPosition.y, PMONFROMMIDDLE->vecPosition.x + PMONFROMMIDDLE->vecSize.x,
PMONFROMMIDDLE->vecPosition.y + PMONFROMMIDDLE->vecSize.y)) {
// not on any monitor, center
pos = middle() / 2.f - w->m_vRealSize.goal() / 2.f;
pos = middle() / 2.f - w->m_vRealSize->goal() / 2.f;
} else
pos = pos - PMONFROMMIDDLE->vecPosition + vecPosition;
w->m_vRealPosition = pos;
w->m_vPosition = pos;
*w->m_vRealPosition = pos;
w->m_vPosition = pos;
}
}
}

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@ -5,7 +5,6 @@
#include "../desktop/Window.hpp"
#include "../desktop/Subsurface.hpp"
#include "../desktop/Popup.hpp"
#include "AnimatedVariable.hpp"
#include "../desktop/WLSurface.hpp"
#include "signal/Signal.hpp"
#include "math/Math.hpp"