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ImHex/lib/third_party/imgui/implot3d/include/implot3d_internal.h
2024-12-17 23:51:45 +01:00

688 lines
24 KiB
C++

//--------------------------------------------------
// ImPlot3D v0.1
// implot3d_internal.h
// Date: 2024-11-17
// Author: Breno Cunha Queiroz (brenocq.com)
//
// Acknowledgments:
// ImPlot3D is heavily inspired by ImPlot
// (https://github.com/epezent/implot) by Evan Pezent,
// and follows a similar code style and structure to
// maintain consistency with ImPlot's API.
//--------------------------------------------------
// Table of Contents:
// [SECTION] Constants
// [SECTION] Generic Helpers
// [SECTION] Forward Declarations
// [SECTION] Callbacks
// [SECTION] Structs
// [SECTION] Context Pointer
// [SECTION] Context Utils
// [SECTION] Style Utils
// [SECTION] Item Utils
// [SECTION] Plot Utils
// [SECTION] Setup Utils
// [SECTION] Formatter
// [SECTION] Locator
#pragma once
#ifndef IMPLOT3D_VERSION
#include "implot3d.h"
#endif
#ifndef IMGUI_DISABLE
#include "imgui_internal.h"
//-----------------------------------------------------------------------------
// [SECTION] Constants
//-----------------------------------------------------------------------------
// Default label format for axis labels
#define IMPLOT3D_LABEL_FORMAT "%g"
// Max character size for tick labels
#define IMPLOT3D_LABEL_MAX_SIZE 32
//-----------------------------------------------------------------------------
// [SECTION] Generic Helpers
//-----------------------------------------------------------------------------
namespace ImPlot3D {
// Computes the common (base-10) logarithm
static inline float ImLog10(float x) { return log10f(x); }
// Returns true if flag is set
template <typename TSet, typename TFlag>
static inline bool ImHasFlag(TSet set, TFlag flag) { return (set & flag) == flag; }
// Flips a flag in a flagset
template <typename TSet, typename TFlag>
static inline void ImFlipFlag(TSet& set, TFlag flag) { ImHasFlag(set, flag) ? set &= ~flag : set |= flag; }
template <typename T>
static inline T ImRemap01(T x, T x0, T x1) { return (x - x0) / (x1 - x0); }
// Returns true if val is NAN
static inline bool ImNan(float val) { return isnan(val); }
// Returns true if val is NAN or INFINITY
static inline bool ImNanOrInf(float val) { return !(val >= -FLT_MAX && val <= FLT_MAX) || ImNan(val); }
// Turns NANs to 0s
static inline double ImConstrainNan(float val) { return ImNan(val) ? 0 : val; }
// Turns infinity to floating point maximums
static inline double ImConstrainInf(double val) { return val >= FLT_MAX ? FLT_MAX : val <= -FLT_MAX ? -FLT_MAX
: val; }
// True if two numbers are approximately equal using units in the last place.
static inline bool ImAlmostEqual(double v1, double v2, int ulp = 2) { return ImAbs(v1 - v2) < FLT_EPSILON * ImAbs(v1 + v2) * ulp || ImAbs(v1 - v2) < FLT_MIN; }
// Set alpha channel of 32-bit color from float in range [0.0 1.0]
static inline ImU32 ImAlphaU32(ImU32 col, float alpha) {
return col & ~((ImU32)((1.0f - alpha) * 255) << IM_COL32_A_SHIFT);
}
// Mix color a and b by factor s in [0 256]
static inline ImU32 ImMixU32(ImU32 a, ImU32 b, ImU32 s) {
#ifdef IMPLOT3D_MIX64
const ImU32 af = 256 - s;
const ImU32 bf = s;
const ImU64 al = (a & 0x00ff00ff) | (((ImU64)(a & 0xff00ff00)) << 24);
const ImU64 bl = (b & 0x00ff00ff) | (((ImU64)(b & 0xff00ff00)) << 24);
const ImU64 mix = (al * af + bl * bf);
return ((mix >> 32) & 0xff00ff00) | ((mix & 0xff00ff00) >> 8);
#else
const ImU32 af = 256 - s;
const ImU32 bf = s;
const ImU32 al = (a & 0x00ff00ff);
const ImU32 ah = (a & 0xff00ff00) >> 8;
const ImU32 bl = (b & 0x00ff00ff);
const ImU32 bh = (b & 0xff00ff00) >> 8;
const ImU32 ml = (al * af + bl * bf);
const ImU32 mh = (ah * af + bh * bf);
return (mh & 0xff00ff00) | ((ml & 0xff00ff00) >> 8);
#endif
}
} // namespace ImPlot3D
//-----------------------------------------------------------------------------
// [SECTION] Forward Declarations
//-----------------------------------------------------------------------------
struct ImPlot3DTicker;
//------------------------------------------------------------------------------
// [SECTION] Callbacks
//------------------------------------------------------------------------------
typedef void (*ImPlot3DLocator)(ImPlot3DTicker& ticker, const ImPlot3DRange& range, ImPlot3DFormatter formatter, void* formatter_data);
//-----------------------------------------------------------------------------
// [SECTION] Structs
//-----------------------------------------------------------------------------
struct ImDrawList3D {
ImVector<ImDrawIdx> IdxBuffer = {}; // Index buffer
ImVector<ImDrawVert> VtxBuffer = {}; // Vertex buffer
ImVector<float> ZBuffer = {}; // Z buffer. Depth value for each triangle
unsigned int _VtxCurrentIdx = 0; // [Internal] current vertex index
ImDrawVert* _VtxWritePtr = nullptr; // [Internal] point within VtxBuffer.Data after each add command (to avoid using the ImVector<> operators too much)
ImDrawIdx* _IdxWritePtr = nullptr; // [Internal] point within IdxBuffer.Data after each add command (to avoid using the ImVector<> operators too much)
float* _ZWritePtr = nullptr; // [Internal] point within ZBuffer.Data after each add command (to avoid using the ImVector<> operators too much)
ImDrawListFlags _Flags = ImDrawListFlags_None; // [Internal] draw list flags
ImDrawListSharedData* _SharedData = nullptr; // [Internal] shared draw list data
ImDrawList3D() {
}
void PrimReserve(int idx_count, int vtx_count);
void PrimUnreserve(int idx_count, int vtx_count);
void SortedMoveToImGuiDrawList();
constexpr static unsigned int MaxIdx() { return sizeof(ImDrawIdx) == 2 ? 65535 : 4294967295; }
};
struct ImPlot3DNextItemData {
ImVec4 Colors[4]; // ImPlot3DCol_Line, ImPlot3DCol_Fill, ImPlot3DCol_MarkerOutline, ImPlot3DCol_MarkerFill,
float LineWeight;
ImPlot3DMarker Marker;
float MarkerSize;
float MarkerWeight;
float FillAlpha;
bool RenderLine;
bool RenderFill;
bool RenderMarkerLine;
bool RenderMarkerFill;
bool IsAutoFill;
bool IsAutoLine;
bool Hidden;
ImPlot3DNextItemData() { Reset(); }
void Reset() {
for (int i = 0; i < 4; i++)
Colors[i] = IMPLOT3D_AUTO_COL;
LineWeight = IMPLOT3D_AUTO;
Marker = IMPLOT3D_AUTO;
MarkerSize = IMPLOT3D_AUTO;
MarkerWeight = IMPLOT3D_AUTO;
FillAlpha = IMPLOT3D_AUTO;
RenderLine = false;
RenderFill = false;
RenderMarkerLine = true;
RenderMarkerFill = true;
IsAutoFill = true;
IsAutoLine = true;
Hidden = false;
}
};
// Colormap data storage
struct ImPlot3DColormapData {
ImVector<ImU32> Keys;
ImVector<int> KeyCounts;
ImVector<int> KeyOffsets;
ImVector<ImU32> Tables;
ImVector<int> TableSizes;
ImVector<int> TableOffsets;
ImGuiTextBuffer Text;
ImVector<int> TextOffsets;
ImVector<bool> Quals;
ImGuiStorage Map;
int Count;
ImPlot3DColormapData() { Count = 0; }
int Append(const char* name, const ImU32* keys, int count, bool qual) {
if (GetIndex(name) != -1)
return -1;
KeyOffsets.push_back(Keys.size());
KeyCounts.push_back(count);
Keys.reserve(Keys.size() + count);
for (int i = 0; i < count; ++i)
Keys.push_back(keys[i]);
TextOffsets.push_back(Text.size());
Text.append(name, name + strlen(name) + 1);
Quals.push_back(qual);
ImGuiID id = ImHashStr(name);
int idx = Count++;
Map.SetInt(id, idx);
_AppendTable(idx);
return idx;
}
void _AppendTable(ImPlot3DColormap cmap) {
int key_count = GetKeyCount(cmap);
const ImU32* keys = GetKeys(cmap);
int off = Tables.size();
TableOffsets.push_back(off);
if (IsQual(cmap)) {
Tables.reserve(key_count);
for (int i = 0; i < key_count; ++i)
Tables.push_back(keys[i]);
TableSizes.push_back(key_count);
} else {
int max_size = 255 * (key_count - 1) + 1;
Tables.reserve(off + max_size);
// ImU32 last = keys[0];
// Tables.push_back(last);
// int n = 1;
for (int i = 0; i < key_count - 1; ++i) {
for (int s = 0; s < 255; ++s) {
ImU32 a = keys[i];
ImU32 b = keys[i + 1];
ImU32 c = ImPlot3D::ImMixU32(a, b, s);
// if (c != last) {
Tables.push_back(c);
// last = c;
// n++;
// }
}
}
ImU32 c = keys[key_count - 1];
// if (c != last) {
Tables.push_back(c);
// n++;
// }
// TableSizes.push_back(n);
TableSizes.push_back(max_size);
}
}
void RebuildTables() {
Tables.resize(0);
TableSizes.resize(0);
TableOffsets.resize(0);
for (int i = 0; i < Count; ++i)
_AppendTable(i);
}
inline bool IsQual(ImPlot3DColormap cmap) const { return Quals[cmap]; }
inline const char* GetName(ImPlot3DColormap cmap) const { return cmap < Count ? Text.Buf.Data + TextOffsets[cmap] : nullptr; }
inline ImPlot3DColormap GetIndex(const char* name) const {
ImGuiID key = ImHashStr(name);
return Map.GetInt(key, -1);
}
inline const ImU32* GetKeys(ImPlot3DColormap cmap) const { return &Keys[KeyOffsets[cmap]]; }
inline int GetKeyCount(ImPlot3DColormap cmap) const { return KeyCounts[cmap]; }
inline ImU32 GetKeyColor(ImPlot3DColormap cmap, int idx) const { return Keys[KeyOffsets[cmap] + idx]; }
inline void SetKeyColor(ImPlot3DColormap cmap, int idx, ImU32 value) {
Keys[KeyOffsets[cmap] + idx] = value;
RebuildTables();
}
inline const ImU32* GetTable(ImPlot3DColormap cmap) const { return &Tables[TableOffsets[cmap]]; }
inline int GetTableSize(ImPlot3DColormap cmap) const { return TableSizes[cmap]; }
inline ImU32 GetTableColor(ImPlot3DColormap cmap, int idx) const { return Tables[TableOffsets[cmap] + idx]; }
inline ImU32 LerpTable(ImPlot3DColormap cmap, float t) const {
int off = TableOffsets[cmap];
int siz = TableSizes[cmap];
int idx = Quals[cmap] ? ImClamp((int)(siz * t), 0, siz - 1) : (int)((siz - 1) * t + 0.5f);
return Tables[off + idx];
}
};
// State information for plot items
struct ImPlot3DItem {
ImGuiID ID;
ImU32 Color;
int NameOffset;
bool Show;
bool LegendHovered;
bool SeenThisFrame;
ImPlot3DItem() {
ID = 0;
Color = IM_COL32_WHITE;
NameOffset = -1;
Show = true;
LegendHovered = false;
SeenThisFrame = false;
}
~ImPlot3DItem() { ID = 0; }
};
// Holds legend state
struct ImPlot3DLegend {
ImPlot3DLegendFlags Flags;
ImPlot3DLegendFlags PreviousFlags;
ImPlot3DLocation Location;
ImPlot3DLocation PreviousLocation;
ImVector<int> Indices;
ImGuiTextBuffer Labels;
ImRect Rect;
bool Hovered;
bool Held;
ImPlot3DLegend() {
PreviousFlags = Flags = ImPlot3DLegendFlags_None;
Hovered = Held = false;
PreviousLocation = Location = ImPlot3DLocation_NorthWest;
}
void Reset() {
Indices.shrink(0);
Labels.Buf.shrink(0);
}
};
// Holds items
struct ImPlot3DItemGroup {
ImPool<ImPlot3DItem> ItemPool;
ImPlot3DLegend Legend;
int ColormapIdx;
ImPlot3DItemGroup() {
ColormapIdx = 0;
}
int GetItemCount() const { return ItemPool.GetBufSize(); }
ImGuiID GetItemID(const char* label_id) { return ImGui::GetID(label_id); }
ImPlot3DItem* GetItem(ImGuiID id) { return ItemPool.GetByKey(id); }
ImPlot3DItem* GetItem(const char* label_id) { return GetItem(GetItemID(label_id)); }
ImPlot3DItem* GetOrAddItem(ImGuiID id) { return ItemPool.GetOrAddByKey(id); }
ImPlot3DItem* GetItemByIndex(int i) { return ItemPool.GetByIndex(i); }
int GetItemIndex(ImPlot3DItem* item) { return ItemPool.GetIndex(item); }
int GetLegendCount() const { return Legend.Indices.size(); }
ImPlot3DItem* GetLegendItem(int i) { return ItemPool.GetByIndex(Legend.Indices[i]); }
const char* GetLegendLabel(int i) { return Legend.Labels.Buf.Data + GetLegendItem(i)->NameOffset; }
void Reset() {
ItemPool.Clear();
Legend.Reset();
ColormapIdx = 0;
}
};
// Tick mark info
struct ImPlot3DTick {
float PlotPos;
bool Major;
bool ShowLabel;
ImVec2 LabelSize;
int TextOffset;
int Idx;
ImPlot3DTick(double value, bool major, bool show_label) {
PlotPos = value;
Major = major;
ShowLabel = show_label;
TextOffset = -1;
}
};
// Collection of ticks
struct ImPlot3DTicker {
ImVector<ImPlot3DTick> Ticks;
ImGuiTextBuffer TextBuffer;
ImPlot3DTicker() {
Reset();
}
ImPlot3DTick& AddTick(double value, bool major, bool show_label, const char* label) {
ImPlot3DTick tick(value, major, show_label);
if (show_label && label != nullptr) {
tick.TextOffset = TextBuffer.size();
TextBuffer.append(label, label + strlen(label) + 1);
tick.LabelSize = ImGui::CalcTextSize(TextBuffer.Buf.Data + tick.TextOffset);
}
return AddTick(tick);
}
ImPlot3DTick& AddTick(double value, bool major, bool show_label, ImPlot3DFormatter formatter, void* data) {
ImPlot3DTick tick(value, major, show_label);
if (show_label && formatter != nullptr) {
char buff[IMPLOT3D_LABEL_MAX_SIZE];
tick.TextOffset = TextBuffer.size();
formatter(tick.PlotPos, buff, sizeof(buff), data);
TextBuffer.append(buff, buff + strlen(buff) + 1);
tick.LabelSize = ImGui::CalcTextSize(TextBuffer.Buf.Data + tick.TextOffset);
}
return AddTick(tick);
}
inline ImPlot3DTick& AddTick(ImPlot3DTick tick) {
tick.Idx = Ticks.size();
Ticks.push_back(tick);
return Ticks.back();
}
const char* GetText(int idx) const {
return TextBuffer.Buf.Data + Ticks[idx].TextOffset;
}
const char* GetText(const ImPlot3DTick& tick) const {
return GetText(tick.Idx);
}
void Reset() {
Ticks.shrink(0);
TextBuffer.Buf.shrink(0);
}
int TickCount() const {
return Ticks.Size;
}
};
// Holds axis information
struct ImPlot3DAxis {
ImPlot3DAxisFlags Flags;
ImPlot3DAxisFlags PreviousFlags;
ImPlot3DRange Range;
ImPlot3DCond RangeCond;
ImGuiTextBuffer Label;
// Ticks
ImPlot3DTicker Ticker;
ImPlot3DFormatter Formatter;
void* FormatterData;
ImPlot3DLocator Locator;
// Fit data
bool FitThisFrame;
ImPlot3DRange FitExtents;
// User input
bool Held;
// Constructor
ImPlot3DAxis() {
PreviousFlags = Flags = ImPlot3DAxisFlags_None;
// Range
Range.Min = 0.0f;
Range.Max = 1.0f;
RangeCond = ImPlot3DCond_None;
// Ticks
Formatter = nullptr;
FormatterData = nullptr;
Locator = nullptr;
// Fit data
FitThisFrame = true;
FitExtents.Min = HUGE_VAL;
FitExtents.Max = -HUGE_VAL;
// User input
Held = false;
}
inline void SetRange(double v1, double v2) {
Range.Min = ImMin(v1, v2);
Range.Max = ImMax(v1, v2);
}
inline bool SetMin(double _min, bool force = false) {
if (!force && IsLockedMin())
return false;
_min = ImPlot3D::ImConstrainNan(ImPlot3D::ImConstrainInf(_min));
if (_min >= Range.Max)
return false;
Range.Min = _min;
return true;
}
inline bool SetMax(double _max, bool force = false) {
if (!force && IsLockedMax())
return false;
_max = ImPlot3D::ImConstrainNan(ImPlot3D::ImConstrainInf(_max));
if (_max <= Range.Min)
return false;
Range.Max = _max;
return true;
}
inline bool IsRangeLocked() const { return RangeCond == ImPlot3DCond_Always; }
inline bool IsLockedMin() const { return IsRangeLocked() || ImPlot3D::ImHasFlag(Flags, ImPlot3DAxisFlags_LockMin); }
inline bool IsLockedMax() const { return IsRangeLocked() || ImPlot3D::ImHasFlag(Flags, ImPlot3DAxisFlags_LockMax); }
inline bool IsLocked() const { return IsLockedMin() && IsLockedMax(); }
inline void SetLabel(const char* label) {
Label.Buf.shrink(0);
if (label && ImGui::FindRenderedTextEnd(label, nullptr) != label)
Label.append(label, label + strlen(label) + 1);
}
inline const char* GetLabel() const { return Label.Buf.Data; }
bool HasLabel() const;
bool HasGridLines() const;
bool HasTickLabels() const;
bool HasTickMarks() const;
bool IsAutoFitting() const;
void ExtendFit(float value);
void ApplyFit();
float PlotToNDC(float value) const;
float NDCToPlot(float value) const;
};
// Holds plot state information that must persist after EndPlot
struct ImPlot3DPlot {
ImGuiID ID;
ImPlot3DFlags Flags;
ImPlot3DFlags PreviousFlags;
ImGuiTextBuffer Title;
bool JustCreated;
bool Initialized;
// Bounding rectangles
ImRect FrameRect; // Outermost bounding rectangle that encapsulates whole the plot/title/padding/etc
ImRect CanvasRect; // Frame rectangle reduced by padding
ImRect PlotRect; // Bounding rectangle for the actual plot area
// Rotation & Axes
ImPlot3DQuat Rotation;
ImPlot3DAxis Axes[3];
// Animation
float AnimationTime; // Remaining animation time
ImPlot3DQuat RotationAnimationEnd; // End rotation for animation
// User input
bool SetupLocked;
bool Hovered;
bool Held;
int HeldEdgeIdx; // Index of the edge being held
int HeldPlaneIdx; // Index of the plane being held
// Fit data
bool FitThisFrame;
// Items
ImPlot3DItemGroup Items;
ImPlot3DItem* CurrentItem;
// 3D draw list
ImDrawList3D DrawList;
// Misc
bool ContextClick; // True if context button was clicked (to distinguish from double click)
bool OpenContextThisFrame;
ImPlot3DPlot() {
PreviousFlags = Flags = ImPlot3DFlags_None;
JustCreated = true;
Initialized = false;
Rotation = ImPlot3DQuat(0.0f, 0.0f, 0.0f, 1.0f);
for (int i = 0; i < 3; i++)
Axes[i] = ImPlot3DAxis();
AnimationTime = 0.0f;
RotationAnimationEnd = Rotation;
SetupLocked = false;
Hovered = Held = false;
HeldEdgeIdx = -1;
HeldPlaneIdx = -1;
FitThisFrame = true;
CurrentItem = nullptr;
ContextClick = false;
OpenContextThisFrame = false;
}
inline void SetTitle(const char* title) {
Title.Buf.shrink(0);
if (title && ImGui::FindRenderedTextEnd(title, nullptr) != title)
Title.append(title, title + strlen(title) + 1);
}
inline bool HasTitle() const { return !Title.empty() && !ImPlot3D::ImHasFlag(Flags, ImPlot3DFlags_NoTitle); }
inline const char* GetTitle() const { return Title.Buf.Data; }
void ExtendFit(const ImPlot3DPoint& point);
ImPlot3DPoint RangeMin() const;
ImPlot3DPoint RangeMax() const;
ImPlot3DPoint RangeCenter() const;
void SetRange(const ImPlot3DPoint& min, const ImPlot3DPoint& max);
};
struct ImPlot3DContext {
ImPool<ImPlot3DPlot> Plots;
ImPlot3DPlot* CurrentPlot;
ImPlot3DItemGroup* CurrentItems;
ImPlot3DNextItemData NextItemData;
ImPlot3DStyle Style;
ImVector<ImGuiColorMod> ColorModifiers;
ImVector<ImGuiStyleMod> StyleModifiers;
ImVector<ImPlot3DColormap> ColormapModifiers;
ImPlot3DColormapData ColormapData;
};
//-----------------------------------------------------------------------------
// [SECTION] Context Pointer
//-----------------------------------------------------------------------------
namespace ImPlot3D {
#ifndef GImPlot3D
extern IMPLOT3D_API ImPlot3DContext* GImPlot3D; // Current context pointer
#endif
//-----------------------------------------------------------------------------
// [SECTION] Context Utils
//-----------------------------------------------------------------------------
IMPLOT3D_API void InitializeContext(ImPlot3DContext* ctx); // Initialize ImPlot3DContext
IMPLOT3D_API void ResetContext(ImPlot3DContext* ctx); // Reset ImPlot3DContext
//-----------------------------------------------------------------------------
// [SECTION] Style Utils
//-----------------------------------------------------------------------------
IMPLOT3D_API bool IsColorAuto(const ImVec4& col);
IMPLOT3D_API bool IsColorAuto(ImPlot3DCol idx);
IMPLOT3D_API ImVec4 GetAutoColor(ImPlot3DCol idx);
IMPLOT3D_API const char* GetStyleColorName(ImPlot3DCol idx);
// Get styling data for next item (call between BeginItem/EndItem)
IMPLOT3D_API const ImPlot3DNextItemData& GetItemData();
// Returns a color from the Color map given an index >= 0 (modulo will be performed)
IMPLOT3D_API ImU32 GetColormapColorU32(int idx, ImPlot3DColormap cmap);
// Returns the next unused colormap color and advances the colormap. Can be used to skip colors if desired
IMPLOT3D_API ImU32 NextColormapColorU32();
//-----------------------------------------------------------------------------
// [SECTION] Item Utils
//-----------------------------------------------------------------------------
IMPLOT3D_API bool BeginItem(const char* label_id, ImPlot3DItemFlags flags = 0, ImPlot3DCol recolor_from = IMPLOT3D_AUTO);
IMPLOT3D_API void EndItem();
// Register or get an existing item from the current plot
IMPLOT3D_API ImPlot3DItem* RegisterOrGetItem(const char* label_id, ImPlot3DItemFlags flags, bool* just_created = nullptr);
// Busts the cache for every item for every plot in the current context
IMPLOT3D_API void BustItemCache();
// TODO move to another place
IMPLOT3D_API void AddTextRotated(ImDrawList* draw_list, ImVec2 pos, float angle, ImU32 col, const char* text_begin, const char* text_end = nullptr);
//-----------------------------------------------------------------------------
// [SECTION] Plot Utils
//-----------------------------------------------------------------------------
// Gets the current plot from the current ImPlot3DContext
IMPLOT3D_API ImPlot3DPlot* GetCurrentPlot();
// Busts the cache for every plot in the current context
IMPLOT3D_API void BustPlotCache();
IMPLOT3D_API ImVec2 GetFramePos(); // Get the current frame position (top-left) in pixels
IMPLOT3D_API ImVec2 GetFrameSize(); // Get the current frame size in pixels
// Convert a position in the current plot's coordinate system to the current plot's normalized device coordinate system (NDC)
// When the cube aspect ratio is [1,1,1], the NDC varies from [-0.5, 0.5] in each axis
IMPLOT3D_API ImPlot3DPoint PlotToNDC(const ImPlot3DPoint& point);
IMPLOT3D_API ImPlot3DPoint NDCToPlot(const ImPlot3DPoint& point);
// Convert a position in the current plot's NDC to pixels
IMPLOT3D_API ImVec2 NDCToPixels(const ImPlot3DPoint& point);
// Convert a pixel coordinate to a ray in the NDC
IMPLOT3D_API ImPlot3DRay PixelsToNDCRay(const ImVec2& pix);
// Convert a ray in the NDC to a ray in the current plot's coordinate system
IMPLOT3D_API ImPlot3DRay NDCRayToPlotRay(const ImPlot3DRay& ray);
//-----------------------------------------------------------------------------
// [SECTION] Setup Utils
//-----------------------------------------------------------------------------
IMPLOT3D_API void SetupLock();
//-----------------------------------------------------------------------------
// [SECTION] Formatter
//-----------------------------------------------------------------------------
int Formatter_Default(float value, char* buff, int size, void* data);
//------------------------------------------------------------------------------
// [SECTION] Locator
//------------------------------------------------------------------------------
void Locator_Default(ImPlot3DTicker& ticker, const ImPlot3DRange& range, ImPlot3DFormatter formatter, void* formatter_data);
} // namespace ImPlot3D
#endif // #ifndef IMGUI_DISABLE