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hittarget.cpp
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// primitive.cpp: implementation of the Primitive class.
//
//////////////////////////////////////////////////////////////////////
#include "stdafx.h"
#include "objloader.h"
#include "meshes/dropTargetT2Mesh.h"
#include "meshes/dropTargetT3Mesh.h"
#include "meshes/dropTargetT4Mesh.h"
#include "meshes/hitTargetRoundMesh.h"
#include "meshes/hitTargetRectangleMesh.h"
#include "meshes/hitTargetFatRectangleMesh.h"
#include "meshes/hitTargetFatSquareMesh.h"
#include "meshes/hitTargetT1SlimMesh.h"
#include "meshes/hitTargetT2SlimMesh.h"
#include "Shader.h"
#include "VertexBuffer.h"
#include "IndexBuffer.h"
////////////////////////////////////////////////////////////////////////////////
const float HitTarget::DROP_TARGET_LIMIT = 52.0f;
HitTarget::HitTarget()
{
vertexBuffer = 0;
indexBuffer = 0;
m_d.m_depthBias = 0.0f;
m_d.m_fReflectionEnabled = true;
m_propPhysics = NULL;
m_propPosition = NULL;
m_propVisual = NULL;
memset(m_d.m_szImage, 0, MAXTOKEN);
memset(m_d.m_szMaterial, 0, 32);
memset(m_d.m_szPhysicsMaterial, 0, 32);
m_d.m_fOverwritePhysics = true;
m_vertices = NULL;
m_indices = NULL;
m_numIndices = 0;
m_numVertices = 0;
m_moveAnimation = false;
m_moveDown = true;
m_moveAnimationOffset = 0.0f;
m_hitEvent = false;
m_ptable = NULL;
m_timeStamp = 0;
}
HitTarget::~HitTarget()
{
if (vertexBuffer)
vertexBuffer->release();
if (indexBuffer)
indexBuffer->release();
}
void HitTarget::SetMeshType(const TargetType type)
{
if (type == DropTargetBeveled)
{
m_vertices = hitTargetT2Mesh;
m_indices = hitTargetT2Indices;
m_numIndices = hitTargetT2NumIndices;
m_numVertices = hitTargetT2Vertices;
}
else if (type == DropTargetSimple)
{
m_vertices = hitTargetT3Mesh;
m_indices = hitTargetT3Indices;
m_numIndices = hitTargetT3NumIndices;
m_numVertices = hitTargetT3Vertices;
}
else if (type == DropTargetFlatSimple)
{
m_vertices = hitTargetT4Mesh;
m_indices = hitTargetT4Indices;
m_numIndices = hitTargetT4NumIndices;
m_numVertices = hitTargetT4Vertices;
}
else if (type == HitTargetRound)
{
m_vertices = hitTargetRoundMesh;
m_indices = hitTargetRoundIndices;
m_numIndices = hitTargetRoundNumIndices;
m_numVertices = hitTargetRoundVertices;
}
else if (type == HitTargetRectangle)
{
m_vertices = hitTargetRectangleMesh;
m_indices = hitTargetRectangleIndices;
m_numIndices = hitTargetRectangleNumIndices;
m_numVertices = hitTargetRectangleVertices;
}
else if (type == HitFatTargetRectangle)
{
m_vertices = hitFatTargetRectangleMesh;
m_indices = hitFatTargetRectangleIndices;
m_numIndices = hitFatTargetRectangleNumIndices;
m_numVertices = hitFatTargetRectangleVertices;
}
else if (type == HitFatTargetSquare)
{
m_vertices = hitFatTargetSquareMesh;
m_indices = hitFatTargetSquareIndices;
m_numIndices = hitFatTargetSquareNumIndices;
m_numVertices = hitFatTargetSquareVertices;
}
else if (type == HitTargetSlim)
{
m_vertices = hitTargetT1SlimMesh;
m_indices = hitTargetT1SlimIndices;
m_numIndices = hitTargetT1SlimNumIndices;
m_numVertices = hitTargetT1SlimVertices;
}
else if (type == HitFatTargetSlim)
{
m_vertices = hitTargetT2SlimMesh;
m_indices = hitTargetT2SlimIndices;
m_numIndices = hitTargetT2SlimNumIndices;
m_numVertices = hitTargetT2SlimVertices;
}
else
{
// just in case if something went wrong with the target type
// set it to the standard simple drop target to prevent crashing
m_vertices = hitTargetT3Mesh;
m_indices = hitTargetT3Indices;
m_numIndices = hitTargetT3NumIndices;
m_numVertices = hitTargetT3Vertices;
m_d.m_targetType = DropTargetSimple;
}
}
HRESULT HitTarget::Init(PinTable *ptable, float x, float y, bool fromMouseClick)
{
m_ptable = ptable;
m_d.m_vPosition.x = x;
m_d.m_vPosition.y = y;
SetDefaults(false);
m_hitEvent = false;
InitVBA(fTrue, 0, NULL);
UpdateEditorView();
return S_OK;
}
void HitTarget::SetDefaults(bool fromMouseClick)
{
static const char strKeyName[] = "DefaultProps\\HitTarget";
m_d.m_legacy = fromMouseClick ? LoadValueBoolWithDefault(strKeyName, "LegacyMode", false) : false;
m_d.m_tdr.m_fTimerEnabled = fromMouseClick ? LoadValueBoolWithDefault(strKeyName, "TimerEnabled", false) : false;
m_d.m_tdr.m_TimerInterval = fromMouseClick ? LoadValueIntWithDefault(strKeyName, "TimerInterval", 100) : 100;
m_d.m_fUseHitEvent = fromMouseClick ? LoadValueBoolWithDefault(strKeyName, "HitEvent", true) : true;
m_d.m_fVisible = fromMouseClick ? LoadValueBoolWithDefault(strKeyName, "Visible", true) : true;
m_d.m_isDropped = fromMouseClick ? LoadValueBoolWithDefault(strKeyName, "IsDropped", false) : false;
// Position (X and Y is already set by the click of the user)
m_d.m_vPosition.z = fromMouseClick ? LoadValueFloatWithDefault(strKeyName, "Position_Z", 0.0f) : 0.0f;
// Size
m_d.m_vSize.x = fromMouseClick ? LoadValueFloatWithDefault(strKeyName, "ScaleX", 32.0f) : 32.0f;
m_d.m_vSize.y = fromMouseClick ? LoadValueFloatWithDefault(strKeyName, "ScaleY", 32.0f) : 32.0f;
m_d.m_vSize.z = fromMouseClick ? LoadValueFloatWithDefault(strKeyName, "ScaleZ", 32.0f) : 32.0f;
// Rotation and Transposition
m_d.m_rotZ = fromMouseClick ? LoadValueFloatWithDefault(strKeyName, "Orientation", 0.0f) : 0.0f;
const HRESULT hr = LoadValueString(strKeyName, "Image", m_d.m_szImage, MAXTOKEN);
if ((hr != S_OK) && fromMouseClick)
m_d.m_szImage[0] = 0;
m_d.m_targetType = fromMouseClick ? (TargetType)LoadValueIntWithDefault(strKeyName, "TargetType", DropTargetSimple) : DropTargetSimple;
m_d.m_threshold = fromMouseClick ? LoadValueFloatWithDefault(strKeyName, "HitThreshold", 2.0f) : 2.0f;
if (m_d.m_targetType == DropTargetBeveled || m_d.m_targetType == DropTargetSimple || m_d.m_targetType == DropTargetFlatSimple)
m_d.m_dropSpeed = fromMouseClick ? LoadValueFloatWithDefault(strKeyName, "DropSpeed", 0.5f) : 0.5f;
else
m_d.m_dropSpeed = fromMouseClick ? LoadValueFloatWithDefault(strKeyName, "DropSpeed", 0.2f) : 0.2f;
SetDefaultPhysics(fromMouseClick);
m_d.m_fCollidable = fromMouseClick ? LoadValueBoolWithDefault(strKeyName, "Collidable", true) : true;
m_d.m_fDisableLightingTop = dequantizeUnsigned<8>(fromMouseClick ? LoadValueIntWithDefault(strKeyName, "DisableLighting", 0) : 0); // stored as uchar for backward compatibility
m_d.m_fDisableLightingBelow = fromMouseClick ? LoadValueFloatWithDefault(strKeyName, "DisableLightingBelow", 0.f) : 0.f;
m_d.m_fReflectionEnabled = fromMouseClick ? LoadValueBoolWithDefault(strKeyName, "ReflectionEnabled", true) : true;
m_d.m_RaiseDelay = fromMouseClick ? LoadValueIntWithDefault(strKeyName, "RaiseDelay", 100) : 100;
}
void HitTarget::WriteRegDefaults()
{
static const char strKeyName[] = "DefaultProps\\HitTarget";
SaveValueBool(strKeyName, "LegacyMode", m_d.m_legacy);
SaveValueBool(strKeyName, "TimerEnabled", m_d.m_tdr.m_fTimerEnabled);
SaveValueInt(strKeyName, "TimerInterval", m_d.m_tdr.m_TimerInterval);
SaveValueBool(strKeyName, "Visible", m_d.m_fVisible);
SaveValueBool(strKeyName, "IsDropped", m_d.m_isDropped);
SaveValueFloat(strKeyName, "Position_Z", m_d.m_vPosition.z);
SaveValueFloat(strKeyName, "DropSpeed", m_d.m_dropSpeed);
SaveValueFloat(strKeyName, "ScaleX", m_d.m_vSize.x);
SaveValueFloat(strKeyName, "ScaleY", m_d.m_vSize.y);
SaveValueFloat(strKeyName, "ScaleZ", m_d.m_vSize.z);
SaveValueFloat(strKeyName, "Orientation", m_d.m_rotZ);
SaveValueString(strKeyName, "Image", m_d.m_szImage);
SaveValueBool(strKeyName, "HitEvent", m_d.m_fUseHitEvent);
SaveValueFloat(strKeyName, "HitThreshold", m_d.m_threshold);
SaveValueFloat(strKeyName, "Elasticity", m_d.m_elasticity);
SaveValueFloat(strKeyName, "ElasticityFalloff", m_d.m_elasticityFalloff);
SaveValueFloat(strKeyName, "Friction", m_d.m_friction);
SaveValueFloat(strKeyName, "Scatter", m_d.m_scatter);
SaveValueInt(strKeyName, "TargetType", m_d.m_targetType);
SaveValueBool(strKeyName, "Collidable", m_d.m_fCollidable);
const int tmp = quantizeUnsigned<8>(clamp(m_d.m_fDisableLightingTop, 0.f, 1.f));
SaveValueInt(strKeyName, "DisableLighting", (tmp == 1) ? 0 : tmp); // backwards compatible saving
SaveValueFloat(strKeyName, "DisableLightingBelow", m_d.m_fDisableLightingBelow);
SaveValueBool(strKeyName, "ReflectionEnabled", m_d.m_fReflectionEnabled);
SaveValueInt(strKeyName, "RaiseDelay", m_d.m_RaiseDelay);
}
const unsigned int num_dropTargetHitPlaneVertices = 16;
const Vertex3Ds dropTargetHitPlaneVertices[num_dropTargetHitPlaneVertices] =
{
Vertex3Ds(-0.300000f, 0.001737f, -0.160074f),
Vertex3Ds(-0.300000f, 0.001738f, 0.439926f),
Vertex3Ds(0.300000f, 0.001738f, 0.439926f),
Vertex3Ds(0.300000f, 0.001737f, -0.160074f),
Vertex3Ds(-0.500000f, 0.001738f, 0.439926f),
Vertex3Ds(-0.500000f, 0.001738f, 1.789926f),
Vertex3Ds(0.500000f, 0.001738f, 1.789926f),
Vertex3Ds(0.500000f, 0.001738f, 0.439926f),
Vertex3Ds(-0.535355f, 0.001738f, 0.454570f),
Vertex3Ds(-0.535355f, 0.001738f, 1.775281f),
Vertex3Ds(-0.550000f, 0.001738f, 0.489926f),
Vertex3Ds(-0.550000f, 0.001738f, 1.739926f),
Vertex3Ds(0.535355f, 0.001738f, 0.454570f),
Vertex3Ds(0.535355f, 0.001738f, 1.775281f),
Vertex3Ds(0.550000f, 0.001738f, 0.489926f),
Vertex3Ds(0.550000f, 0.001738f, 1.739926f)
};
const unsigned int num_dropTargetHitPlaneIndices = 42;
const WORD dropTargetHitPlaneIndices[num_dropTargetHitPlaneIndices] =
{
0, 1, 2, 2, 3, 0, 1, 4, 5, 6, 7, 2, 5, 6, 1,
2, 1, 6, 4, 8, 9, 9, 5, 4, 8, 10, 11, 11, 9, 8,
6, 12, 7, 12, 6, 13, 12, 13, 14, 13, 15, 14
};
void HitTarget::GetHitShapes(vector<HitObject*> &pvho)
{
TransformVertices();
if (m_d.m_targetType == DropTargetBeveled || m_d.m_targetType == DropTargetFlatSimple || m_d.m_targetType == DropTargetSimple)
{
std::set< std::pair<unsigned, unsigned> > addedEdges;
Matrix3D fullMatrix, tempMatrix;
fullMatrix.SetIdentity();
tempMatrix.SetIdentity();
tempMatrix.RotateZMatrix(ANGTORAD(m_d.m_rotZ));
tempMatrix.Multiply(fullMatrix, fullMatrix);
// add the normal drop target as collidable but without hit event
for (unsigned i = 0; i < m_numIndices; i += 3)
{
const unsigned int i0 = m_indices[i];
const unsigned int i1 = m_indices[i + 1];
const unsigned int i2 = m_indices[i + 2];
const Vertex3Ds rgv3D[3] = {
// NB: HitTriangle wants CCW vertices, but for rendering we have them in CW order
Vertex3Ds(vertices[i0].x, vertices[i0].y, vertices[i0].z),
Vertex3Ds(vertices[i2].x, vertices[i2].y, vertices[i2].z),
Vertex3Ds(vertices[i1].x, vertices[i1].y, vertices[i1].z) };
SetupHitObject(pvho, new HitTriangle(rgv3D), m_d.m_legacy);
AddHitEdge(pvho, addedEdges, i0, i1, rgv3D[0], rgv3D[2], m_d.m_legacy);
AddHitEdge(pvho, addedEdges, i1, i2, rgv3D[2], rgv3D[1], m_d.m_legacy);
AddHitEdge(pvho, addedEdges, i2, i0, rgv3D[1], rgv3D[0], m_d.m_legacy);
}
// add collision vertices
for (unsigned i = 0; i < m_numVertices; ++i)
SetupHitObject(pvho, new HitPoint(vertices[i]), m_d.m_legacy);
if (!m_d.m_legacy)
{
Vertex3Ds rgv3D[num_dropTargetHitPlaneVertices];
float hitShapeOffset = 0.18f;
if (m_d.m_targetType == DropTargetBeveled)
hitShapeOffset = 0.25f;
if (m_d.m_targetType == DropTargetFlatSimple)
hitShapeOffset = 0.13f;
// now create a special hit shape with hit event enabled to prevent a hit event when hit from behind
for (unsigned i = 0; i < num_dropTargetHitPlaneVertices; i++)
{
Vertex3Ds vert(dropTargetHitPlaneVertices[i].x, dropTargetHitPlaneVertices[i].y + hitShapeOffset, dropTargetHitPlaneVertices[i].z);
vert.x *= m_d.m_vSize.x;
vert.y *= m_d.m_vSize.y;
vert.z *= m_d.m_vSize.z;
vert = fullMatrix.MultiplyVector(vert);
rgv3D[i].x = vert.x + m_d.m_vPosition.x;
rgv3D[i].y = vert.y + m_d.m_vPosition.y;
rgv3D[i].z = vert.z*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set] + m_d.m_vPosition.z + m_ptable->m_tableheight;
}
for (unsigned int i = 0; i < num_dropTargetHitPlaneIndices; i += 3)
{
const unsigned int i0 = dropTargetHitPlaneIndices[i];
const unsigned int i1 = dropTargetHitPlaneIndices[i + 1];
const unsigned int i2 = dropTargetHitPlaneIndices[i + 2];
const Vertex3Ds rgv3D2[3] = {
// NB: HitTriangle wants CCW vertices, but for rendering we have them in CW order
rgv3D[i0],
rgv3D[i2],
rgv3D[i1] };
SetupHitObject(pvho, new HitTriangle(rgv3D2), true);
AddHitEdge(pvho, addedEdges, i0, i1, rgv3D2[0], rgv3D2[2]);
AddHitEdge(pvho, addedEdges, i1, i2, rgv3D2[2], rgv3D2[1]);
AddHitEdge(pvho, addedEdges, i2, i0, rgv3D2[1], rgv3D2[0]);
}
// add collision vertices
for (unsigned i = 0; i < num_dropTargetHitPlaneVertices; ++i)
SetupHitObject(pvho, new HitPoint(rgv3D[i]), true);
}
}
else
{
std::set< std::pair<unsigned, unsigned> > addedEdges;
// add collision triangles and edges
for (unsigned i = 0; i < m_numIndices; i += 3)
{
const unsigned int i0 = m_indices[i];
const unsigned int i1 = m_indices[i + 1];
const unsigned int i2 = m_indices[i + 2];
const Vertex3Ds rgv3D[3] = {
// NB: HitTriangle wants CCW vertices, but for rendering we have them in CW order
Vertex3Ds(vertices[i0].x, vertices[i0].y, vertices[i0].z),
Vertex3Ds(vertices[i2].x, vertices[i2].y, vertices[i2].z),
Vertex3Ds(vertices[i1].x, vertices[i1].y, vertices[i1].z) };
SetupHitObject(pvho, new HitTriangle(rgv3D), true);
AddHitEdge(pvho, addedEdges, i0, i1, rgv3D[0], rgv3D[2]);
AddHitEdge(pvho, addedEdges, i1, i2, rgv3D[2], rgv3D[1]);
AddHitEdge(pvho, addedEdges, i2, i0, rgv3D[1], rgv3D[0]);
}
// add collision vertices
for (unsigned i = 0; i < m_numVertices; ++i)
SetupHitObject(pvho, new HitPoint(vertices[i]), true);
}
}
void HitTarget::GetHitShapesDebug(vector<HitObject*> &pvho)
{
}
void HitTarget::AddHitEdge(vector<HitObject*> &pvho, std::set< std::pair<unsigned, unsigned> >& addedEdges, const unsigned i, const unsigned j, const Vertex3Ds &vi, const Vertex3Ds &vj, const bool setHitObject)
{
// create pair uniquely identifying the edge (i,j)
std::pair<unsigned, unsigned> p(std::min(i, j), std::max(i, j));
if (addedEdges.count(p) == 0) // edge not yet added?
{
addedEdges.insert(p);
SetupHitObject(pvho, new HitLine3D(vi, vj), setHitObject);
}
}
void HitTarget::SetupHitObject(vector<HitObject*> &pvho, HitObject * obj, const bool setHitObject)
{
const Material * const mat = m_ptable->GetMaterial(m_d.m_szPhysicsMaterial);
if (mat != NULL && !m_d.m_fOverwritePhysics)
{
obj->m_elasticity = mat->m_fElasticity;
obj->m_elasticityFalloff = mat->m_fElasticityFalloff;
obj->SetFriction(mat->m_fFriction);
obj->m_scatter = ANGTORAD(mat->m_fScatterAngle);
}
else
{
obj->m_elasticity = m_d.m_elasticity;
obj->m_elasticityFalloff = m_d.m_elasticityFalloff;
obj->SetFriction(m_d.m_friction);
obj->m_scatter = ANGTORAD(m_d.m_scatter);
}
obj->m_threshold = m_d.m_threshold;
obj->m_fEnabled = m_d.m_fCollidable;
obj->m_ObjType = eHitTarget;
obj->m_obj = (IFireEvents*)this;
obj->m_fe = setHitObject && m_d.m_fUseHitEvent;
pvho.push_back(obj);
m_vhoCollidable.push_back(obj); //remember hit components of primitive
}
void HitTarget::EndPlay()
{
m_vhoCollidable.clear();
if (vertexBuffer)
{
vertexBuffer->release();
vertexBuffer = 0;
}
if (indexBuffer)
{
indexBuffer->release();
indexBuffer = 0;
}
IEditable::EndPlay();
}
//////////////////////////////
// Calculation
//////////////////////////////
void HitTarget::GenerateMesh(std::vector<Vertex3D_NoTex2> &buf)
{
SetMeshType(m_d.m_targetType);
Matrix3D fullMatrix, tempMatrix;
fullMatrix.SetIdentity();
tempMatrix.SetIdentity();
tempMatrix.RotateZMatrix(ANGTORAD(m_d.m_rotZ));
tempMatrix.Multiply(fullMatrix, fullMatrix);
for (unsigned int i = 0; i < m_numVertices; i++)
{
Vertex3Ds vert(m_vertices[i].x, m_vertices[i].y, m_vertices[i].z);
vert.x *= m_d.m_vSize.x;
vert.y *= m_d.m_vSize.y;
vert.z *= m_d.m_vSize.z;
vert = fullMatrix.MultiplyVector(vert);
buf[i].x = vert.x + m_d.m_vPosition.x;
buf[i].y = vert.y + m_d.m_vPosition.y;
buf[i].z = vert.z*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set] + m_d.m_vPosition.z + m_ptable->m_tableheight;
vert = Vertex3Ds(m_vertices[i].nx, m_vertices[i].ny, m_vertices[i].nz);
vert = fullMatrix.MultiplyVectorNoTranslate(vert);
buf[i].nx = vert.x;
buf[i].ny = vert.y;
buf[i].nz = vert.z;
buf[i].tu = m_vertices[i].tu;
buf[i].tv = m_vertices[i].tv;
}
}
// recalculate vertices for editor display or hit shapes
void HitTarget::TransformVertices()
{
SetMeshType(m_d.m_targetType);
Matrix3D fullMatrix, tempMatrix;
vertices.resize(m_numVertices);
fullMatrix.SetIdentity();
tempMatrix.SetIdentity();
tempMatrix.RotateZMatrix(ANGTORAD(m_d.m_rotZ));
tempMatrix.Multiply(fullMatrix, fullMatrix);
for (unsigned i = 0; i < m_numVertices; i++)
{
Vertex3Ds vert(m_vertices[i].x, m_vertices[i].y, m_vertices[i].z);
vert.x *= m_d.m_vSize.x;
vert.y *= m_d.m_vSize.y;
vert.z *= m_d.m_vSize.z;
vert = fullMatrix.MultiplyVector(vert);
vertices[i].x = vert.x + m_d.m_vPosition.x;
vertices[i].y = vert.y + m_d.m_vPosition.y;
vertices[i].z = vert.z*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set] + (m_d.m_vPosition.z + m_ptable->m_tableheight);
}
}
void HitTarget::ExportMesh(FILE *f)
{
char name[MAX_PATH];
char subObjName[MAX_PATH];
WideCharToMultiByte(CP_ACP, 0, m_wzName, -1, name, MAX_PATH, NULL, NULL);
SetMeshType(m_d.m_targetType);
transformedVertices.resize(m_numVertices);
strcpy_s(subObjName, name);
WaveFrontObj_WriteObjectName(f, subObjName);
GenerateMesh(transformedVertices);
WaveFrontObj_WriteVertexInfo(f, transformedVertices.data(), m_numVertices);
const Material * mat = m_ptable->GetMaterial(m_d.m_szMaterial);
WaveFrontObj_WriteMaterial(m_d.m_szMaterial, NULL, mat);
WaveFrontObj_UseTexture(f, m_d.m_szMaterial);
WaveFrontObj_WriteFaceInfoList(f, m_indices, m_numIndices);
WaveFrontObj_UpdateFaceOffset(m_numVertices);
}
//////////////////////////////
// Rendering
//////////////////////////////
// 2D
void HitTarget::UIRenderPass1(Sur * const psur)
{
}
void HitTarget::UIRenderPass2(Sur * const psur)
{
psur->SetLineColor(RGB(0, 0, 0), false, 1);
psur->SetObject(this);
for (unsigned i = 0; i < m_numIndices; i += 3)
{
const Vertex3Ds * const A = &vertices[m_indices[i]];
const Vertex3Ds * const B = &vertices[m_indices[i + 1]];
const Vertex3Ds * const C = &vertices[m_indices[i + 2]];
psur->Line(A->x, A->y, B->x, B->y);
psur->Line(B->x, B->y, C->x, C->y);
psur->Line(C->x, C->y, A->x, A->y);
}
if (m_selectstate == eNotSelected)
return;
const float radangle = ANGTORAD(m_d.m_rotZ - 180.0f);
const float halflength = 50.0f;
const float len1 = halflength * 0.5f;
const float len2 = len1 * 0.5f;
Vertex2D tmp;
{
// Draw Arrow
psur->SetLineColor(RGB(255, 0, 0), false, 1);
{
const float sn = sinf(radangle);
const float cs = cosf(radangle);
tmp.x = m_d.m_vPosition.x + sn * len1;
tmp.y = m_d.m_vPosition.y - cs * len1;
}
psur->Line(tmp.x, tmp.y, m_d.m_vPosition.x, m_d.m_vPosition.y);
{
const float arrowang = radangle + 0.6f;
const float sn = sinf(arrowang);
const float cs = cosf(arrowang);
psur->Line(tmp.x, tmp.y, m_d.m_vPosition.x + sn * len2, m_d.m_vPosition.y - cs * len2);
}
{
const float arrowang = ANGTORAD(m_d.m_rotZ - 180.0f) - 0.6f;
const float sn = sinf(arrowang);
const float cs = cosf(arrowang);
psur->Line(tmp.x, tmp.y,
m_d.m_vPosition.x + sn * len2, m_d.m_vPosition.y - cs * len2);
}
}
// draw center marker
// psur->SetLineColor(RGB(128, 128, 128), false, 1);
// psur->Line(m_d.m_vPosition.x - 10.0f, m_d.m_vPosition.y, m_d.m_vPosition.x + 10.0f, m_d.m_vPosition.y);
// psur->Line(m_d.m_vPosition.x, m_d.m_vPosition.y - 10.0f, m_d.m_vPosition.x, m_d.m_vPosition.y + 10.0f);
}
void HitTarget::UpdateEditorView()
{
TransformVertices();
}
void HitTarget::UpdateAnimation()
{
const U32 old_time_msec = (m_d.m_time_msec < g_pplayer->m_time_msec) ? m_d.m_time_msec : g_pplayer->m_time_msec;
m_d.m_time_msec = g_pplayer->m_time_msec;
const float diff_time_msec = (float)(g_pplayer->m_time_msec - old_time_msec);
if (m_hitEvent)
{
if (!m_d.m_isDropped)
{
m_moveDown = true;
}
m_moveAnimation = true;
m_hitEvent = false;
}
if (m_d.m_targetType == DropTargetBeveled || m_d.m_targetType == DropTargetSimple || m_d.m_targetType == DropTargetFlatSimple)
{
if (m_moveAnimation)
{
float step = m_d.m_dropSpeed*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
const float limit = DROP_TARGET_LIMIT * m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
if (m_moveDown)
step = -step;
else if ((m_d.m_time_msec - m_timeStamp) < (unsigned int)m_d.m_RaiseDelay)
{
step = 0.0f;
}
m_moveAnimationOffset += step * diff_time_msec;
if (m_moveDown)
{
if (m_moveAnimationOffset <= -limit)
{
m_moveAnimationOffset = -limit;
m_moveDown = false;
m_d.m_isDropped = true;
m_moveAnimation = false;
m_timeStamp = 0;
if (m_d.m_fUseHitEvent)
FireGroupEvent(DISPID_TargetEvents_Dropped);
}
}
else
{
if (m_moveAnimationOffset >= 0.0f)
{
m_moveAnimationOffset = 0.0f;
m_moveAnimation = false;
m_d.m_isDropped = false;
if (m_d.m_fUseHitEvent)
FireGroupEvent(DISPID_TargetEvents_Raised);
}
}
UpdateTarget();
}
}
else
{
if (m_moveAnimation)
{
float step = m_d.m_dropSpeed*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
const float limit = 13.0f*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
if (!m_moveDown)
step = -step;
m_moveAnimationOffset += step * diff_time_msec;
if (m_moveDown)
{
if (m_moveAnimationOffset >= limit)
{
m_moveAnimationOffset = limit;
m_moveDown = false;
}
}
else
{
if (m_moveAnimationOffset <= 0.0f)
{
m_moveAnimationOffset = 0.0f;
m_moveAnimation = false;
}
}
UpdateTarget();
}
}
}
void HitTarget::RenderObject()
{
UpdateAnimation();
RenderDevice *pd3dDevice = g_pplayer->m_pin3d.m_pd3dPrimaryDevice;
const Material * const mat = m_ptable->GetMaterial(m_d.m_szMaterial);
pd3dDevice->basicShader->SetMaterial(mat);
pd3dDevice->SetRenderStateDepthBias(0.0f);
pd3dDevice->SetRenderState(RenderDevice::ZWRITEENABLE, RenderDevice::RS_TRUE);
#ifdef TWOSIDED_TRANSPARENCY
pd3dDevice->SetRenderStateCulling(mat->m_bOpacityActive ? D3DCULL_CW : D3DCULL_CCW);
#else
pd3dDevice->SetRenderStateCulling(RenderDevice::CULL_CCW);
#endif
if (m_d.m_fDisableLightingTop != 0.f || m_d.m_fDisableLightingBelow != 0.f)
{
const vec4 tmp(m_d.m_fDisableLightingTop, m_d.m_fDisableLightingBelow, 0.f, 0.f);
pd3dDevice->basicShader->SetDisableLighting(tmp);
}
Texture * const pin = m_ptable->GetImage(m_d.m_szImage);
if (pin)
{
pd3dDevice->basicShader->SetTechnique("basic_with_texture");
pd3dDevice->basicShader->SetTexture("Texture0", pin, false);
pd3dDevice->basicShader->SetAlphaTestValue(pin->m_alphaTestValue * (float)(1.0 / 255.0));
//g_pplayer->m_pin3d.SetPrimaryTextureFilter(0, TEXTURE_MODE_TRILINEAR);
// accomodate models with UV coords outside of [0,1]
pd3dDevice->SetTextureAddressMode(0, RenderDevice::TEX_WRAP);
}
else
pd3dDevice->basicShader->SetTechnique("basic_without_texture");
pd3dDevice->basicShader->SetBool("is_metal", mat->m_bIsMetal);
// draw the mesh
pd3dDevice->basicShader->Begin(0);
pd3dDevice->DrawIndexedPrimitiveVB(RenderDevice::TRIANGLELIST, MY_D3DFVF_NOTEX2_VERTEX, vertexBuffer, 0, m_numVertices, indexBuffer, 0, m_numIndices);
pd3dDevice->basicShader->End();
#ifdef TWOSIDED_TRANSPARENCY
if (mat->m_bOpacityActive)
{
pd3dDevice->SetRenderStateCulling(RenderDevice::CULL_CCW);
pd3dDevice->basicShader->Begin(0);
pd3dDevice->DrawIndexedPrimitiveVB(RenderDevice::TRIANGLELIST, MY_D3DFVF_NOTEX2_VERTEX, vertexBuffer, 0, m_numVertices, indexBuffer, 0, m_numIndices);
pd3dDevice->basicShader->End();
}
#endif
pd3dDevice->SetTextureAddressMode(0, RenderDevice::TEX_CLAMP);
//g_pplayer->m_pin3d.DisableAlphaBlend(); //!! not necessary anymore
if (m_d.m_fDisableLightingTop != 0.f || m_d.m_fDisableLightingBelow != 0.f)
{
const vec4 tmp(0.f, 0.f, 0.f, 0.f);
pd3dDevice->basicShader->SetDisableLighting(tmp);
}
}
void HitTarget::UpdateTarget()
{
Vertex3D_NoTex2 *buf;
vertexBuffer->lock(0, 0, (void**)&buf, VertexBuffer::DISCARDCONTENTS);
if (m_d.m_targetType == DropTargetBeveled || m_d.m_targetType == DropTargetSimple || m_d.m_targetType == DropTargetFlatSimple)
{
//TODO Update object Matrix instead
for (unsigned int i = 0; i < m_numVertices; i++)
{
buf[i].x = transformedVertices[i].x;
buf[i].y = transformedVertices[i].y;
buf[i].z = transformedVertices[i].z + m_moveAnimationOffset;
buf[i].nx = transformedVertices[i].nx;
buf[i].ny = transformedVertices[i].ny;
buf[i].nz = transformedVertices[i].nz;
buf[i].tu = transformedVertices[i].tu;
buf[i].tv = transformedVertices[i].tv;
}
}
else
{
Matrix3D fullMatrix, tempMatrix;
fullMatrix.RotateXMatrix(ANGTORAD(m_moveAnimationOffset));
tempMatrix.RotateZMatrix(ANGTORAD(m_d.m_rotZ));
tempMatrix.Multiply(fullMatrix, fullMatrix);
Matrix3D vertMatrix;
vertMatrix.SetScaling(m_d.m_vSize.x, m_d.m_vSize.y, m_d.m_vSize.z);
fullMatrix.Multiply(vertMatrix, vertMatrix);
tempMatrix.SetScaling(1.f, 1.f, m_ptable->m_BG_scalez[m_ptable->m_BG_current_set]);
tempMatrix.Multiply(vertMatrix, vertMatrix);
tempMatrix.SetTranslation(m_d.m_vPosition.x, m_d.m_vPosition.y, m_d.m_vPosition.z + m_ptable->m_tableheight);
tempMatrix.Multiply(vertMatrix, vertMatrix);
//TODO Update object Matrix instead
for (unsigned int i = 0; i < m_numVertices; i++)
{
Vertex3Ds vert(m_vertices[i].x, m_vertices[i].y, m_vertices[i].z);
vert = vertMatrix.MultiplyVector(vert);
buf[i].x = vert.x;
buf[i].y = vert.y;
buf[i].z = vert.z;
vert = Vertex3Ds(m_vertices[i].nx, m_vertices[i].ny, m_vertices[i].nz);
vert = fullMatrix.MultiplyVectorNoTranslate(vert);
buf[i].nx = vert.x;
buf[i].ny = vert.y;
buf[i].nz = vert.z;
buf[i].tu = m_vertices[i].tu;
buf[i].tv = m_vertices[i].tv;
}
}
vertexBuffer->unlock();
}
// Always called each frame to render over everything else (along with alpha ramps)
void HitTarget::RenderDynamic()
{
TRACE_FUNCTION();
if (!m_d.m_fVisible)
return;
if (m_ptable->m_fReflectionEnabled && !m_d.m_fReflectionEnabled)
return;
RenderObject();
}
void HitTarget::RenderSetup()
{
if (vertexBuffer)
vertexBuffer->release();
SetMeshType(m_d.m_targetType);
VertexBuffer::CreateVertexBuffer((unsigned int)m_numVertices, USAGE_DYNAMIC, MY_D3DFVF_NOTEX2_VERTEX, &vertexBuffer);
if (indexBuffer)
indexBuffer->release();
indexBuffer = IndexBuffer::CreateAndFillIndexBuffer(m_numIndices, m_indices);
transformedVertices.resize(m_numVertices);
GenerateMesh(transformedVertices);
m_moveAnimationOffset = 0.0f;
if (m_d.m_targetType == DropTargetBeveled || m_d.m_targetType == DropTargetSimple || m_d.m_targetType == DropTargetFlatSimple)
{
if (m_d.m_isDropped)
{
m_moveDown = false;
m_moveAnimationOffset = -DROP_TARGET_LIMIT * m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
UpdateTarget();
return;
}
}
Vertex3D_NoTex2 *buf;
vertexBuffer->lock(0, 0, (void**)&buf, VertexBuffer::DISCARDCONTENTS);
memcpy(buf, transformedVertices.data(), m_numVertices * sizeof(Vertex3D_NoTex2));
vertexBuffer->unlock();
m_d.m_time_msec = g_pplayer->m_time_msec;
}
void HitTarget::RenderStatic()
{
}
//////////////////////////////
// Positioning
//////////////////////////////
void HitTarget::SetObjectPos()
{
g_pvp->SetObjectPosCur(m_d.m_vPosition.x, m_d.m_vPosition.y);
}
void HitTarget::MoveOffset(const float dx, const float dy)
{
m_d.m_vPosition.x += dx;
m_d.m_vPosition.y += dy;
UpdateEditorView();
}
Vertex2D HitTarget::GetCenter() const
{
return Vertex2D(m_d.m_vPosition.x, m_d.m_vPosition.y);
}
void HitTarget::PutCenter(const Vertex2D& pv)
{
m_d.m_vPosition.x = pv.x;
m_d.m_vPosition.y = pv.y;
UpdateEditorView();
}
//////////////////////////////
// Save and Load
//////////////////////////////
HRESULT HitTarget::SaveData(IStream *pstm, HCRYPTHASH hcrypthash)
{
BiffWriter bw(pstm, hcrypthash);
/*
* Someone decided that it was a good idea to write these vectors including
* the fourth padding float that they used to have, so now we have to write
* them padded to 4 floats to maintain compatibility.
*/
bw.WriteVector3Padded(FID(VPOS), &m_d.m_vPosition);
bw.WriteVector3Padded(FID(VSIZ), &m_d.m_vSize);
bw.WriteFloat(FID(ROTZ), m_d.m_rotZ);
bw.WriteString(FID(IMAG), m_d.m_szImage);
bw.WriteInt(FID(TRTY), m_d.m_targetType);
bw.WriteWideString(FID(NAME), (WCHAR *)m_wzName);
bw.WriteString(FID(MATR), m_d.m_szMaterial);
bw.WriteBool(FID(TVIS), m_d.m_fVisible);
bw.WriteBool(FID(LEMO), m_d.m_legacy);
bw.WriteBool(FID(HTEV), m_d.m_fUseHitEvent);
bw.WriteFloat(FID(THRS), m_d.m_threshold);
bw.WriteFloat(FID(ELAS), m_d.m_elasticity);
bw.WriteFloat(FID(ELFO), m_d.m_elasticityFalloff);
bw.WriteFloat(FID(RFCT), m_d.m_friction);
bw.WriteFloat(FID(RSCT), m_d.m_scatter);
bw.WriteBool(FID(CLDRP), m_d.m_fCollidable);
const int tmp = quantizeUnsigned<8>(clamp(m_d.m_fDisableLightingTop, 0.f, 1.f));
bw.WriteInt(FID(DILI), (tmp == 1) ? 0 : tmp); // backwards compatible saving
bw.WriteFloat(FID(DILB), m_d.m_fDisableLightingBelow);
bw.WriteBool(FID(REEN), m_d.m_fReflectionEnabled);
bw.WriteFloat(FID(PIDB), m_d.m_depthBias);
bw.WriteBool(FID(ISDR), m_d.m_isDropped);
bw.WriteFloat(FID(DRSP), m_d.m_dropSpeed);
bw.WriteBool(FID(TMON), m_d.m_tdr.m_fTimerEnabled);
bw.WriteInt(FID(TMIN), m_d.m_tdr.m_TimerInterval);
bw.WriteInt(FID(RADE), m_d.m_RaiseDelay);
bw.WriteString(FID(MAPH), m_d.m_szPhysicsMaterial);
bw.WriteBool(FID(OVPH), m_d.m_fOverwritePhysics);
ISelect::SaveData(pstm, hcrypthash);
bw.WriteTag(FID(ENDB));
return S_OK;
}
HRESULT HitTarget::InitLoad(IStream *pstm, PinTable *ptable, int *pid, int version, HCRYPTHASH hcrypthash, HCRYPTKEY hcryptkey)
{
SetDefaults(false);
BiffReader br(pstm, this, pid, version, hcrypthash, hcryptkey);
m_ptable = ptable;
br.Load();
UpdateEditorView();
return S_OK;
}
BOOL HitTarget::LoadToken(int id, BiffReader *pbr)
{
if (id == FID(PIID))
{
pbr->GetInt((int *)pbr->m_pdata);
}
else if (id == FID(VPOS))
{
pbr->GetVector3Padded(&m_d.m_vPosition);
}
else if (id == FID(VSIZ))
{
pbr->GetVector3Padded(&m_d.m_vSize);
}
else if (id == FID(ROTZ))
{
pbr->GetFloat(&m_d.m_rotZ);
}
else if (id == FID(IMAG))
{
pbr->GetString(m_d.m_szImage);
}
else if (id == FID(TRTY))
{
pbr->GetInt(&m_d.m_targetType);
}
else if (id == FID(NAME))
{
pbr->GetWideString((WCHAR *)m_wzName);
}
else if (id == FID(MATR))
{
pbr->GetString(m_d.m_szMaterial);
}
else if (id == FID(TVIS))
{
pbr->GetBool(&m_d.m_fVisible);
}
else if (id == FID(LEMO))
{
pbr->GetBool(&m_d.m_legacy);
}
else if (id == FID(ISDR))
{
pbr->GetBool(&m_d.m_isDropped);
}
else if (id == FID(DRSP))
{
pbr->GetFloat(&m_d.m_dropSpeed);
}
else if (id == FID(REEN))
{
pbr->GetBool(&m_d.m_fReflectionEnabled);
}
else if (id == FID(HTEV))
{
pbr->GetBool(&m_d.m_fUseHitEvent);
}
else if (id == FID(THRS))
{
pbr->GetFloat(&m_d.m_threshold);
}
else if (id == FID(ELAS))
{