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gate.cpp
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gate.cpp
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#include "stdafx.h"
#include "objloader.h"
#include "meshes/gateBracketMesh.h"
#include "meshes/gateWireMesh.h"
#include "meshes/gateLongPlateMesh.h"
#include "meshes/gatePlateMesh.h"
#include "meshes/gateWireRectangleMesh.h"
#include "Shader.h"
#include "IndexBuffer.h"
#include "VertexBuffer.h"
Gate::Gate()
{
m_phitgate = nullptr;
m_plineseg = nullptr;
m_bracketIndexBuffer = nullptr;
m_bracketVertexBuffer = nullptr;
m_wireIndexBuffer = nullptr;
m_wireVertexBuffer = nullptr;
m_vertexbuffer_angle = FLT_MAX;
m_d.m_type = GateWireW;
m_vertices = 0;
m_indices = 0;
m_numIndices = 0;
m_numVertices = 0;
}
void Gate::SetGateType(GateType type)
{
switch (m_d.m_type)
{
case GateWireW:
{
m_vertices = gateWire;
m_indices = gateWireIndices;
m_numIndices = gateWireNumIndices;
m_numVertices = gateWireNumVertices;
break;
}
case GateWireRectangle:
{
m_vertices = gateWireRectangleMesh;
m_indices = gateWireRectangleIndices;
m_numIndices = gateWireRectangleNumIndices;
m_numVertices = gateWireRectangleNumVertices;
break;
}
case GateLongPlate:
{
m_vertices = gateLongPlateMesh;
m_indices = gateLongPlateIndices;
m_numIndices = gateLongPlateNumIndices;
m_numVertices = gateLongPlateVertices;
break;
}
case GatePlate:
{
m_vertices = gatePlateMesh;
m_indices = gatePlateIndices;
m_numIndices = gatePlateNumIndices;
m_numVertices = gatePlateNumVertices;
break;
}
default:
ShowError("Unknown Gate type");
break;
}
}
Gate::~Gate()
{
SAFE_BUFFER_RELEASE(m_bracketVertexBuffer);
SAFE_BUFFER_RELEASE(m_bracketIndexBuffer);
SAFE_BUFFER_RELEASE(m_wireIndexBuffer);
SAFE_BUFFER_RELEASE(m_wireVertexBuffer);
}
void Gate::UpdateStatusBarInfo()
{
char tbuf[128];
sprintf_s(tbuf, sizeof(tbuf), "Length: %.3f | Height: %.3f", m_vpinball->ConvertToUnit(m_d.m_length), m_vpinball->ConvertToUnit(m_d.m_height));
m_vpinball->SetStatusBarUnitInfo(tbuf, true);
}
HRESULT Gate::Init(PinTable *ptable, float x, float y, bool fromMouseClick)
{
m_ptable = ptable;
m_d.m_vCenter.x = x;
m_d.m_vCenter.y = y;
SetDefaults(fromMouseClick);
InitVBA(fTrue, 0, nullptr);
return S_OK;
}
void Gate::SetDefaults(bool fromMouseClick)
{
#define regKey regKey[RegName::DefaultPropsGate]
m_d.m_length = fromMouseClick ? LoadValueFloatWithDefault(regKey, "Length"s, 100.f) : 100.f;
m_d.m_height = fromMouseClick ? LoadValueFloatWithDefault(regKey, "Height"s, 50.f) : 50.f;
m_d.m_rotation = fromMouseClick ? LoadValueFloatWithDefault(regKey, "Rotation"s, -90.f) : -90.f;
m_d.m_showBracket = fromMouseClick ? LoadValueBoolWithDefault(regKey, "ShowBracket"s, true) : true;
m_d.m_type = fromMouseClick ? (GateType)LoadValueIntWithDefault(regKey, "GateType"s, GateWireW) : GateWireW;
m_d.m_collidable = fromMouseClick ? LoadValueBoolWithDefault(regKey, "Collidable"s, true) : true;
m_d.m_angleMin = fromMouseClick ? LoadValueFloatWithDefault(regKey, "AngleMin"s, 0.f) : 0.f;
m_d.m_angleMax = fromMouseClick ? LoadValueFloatWithDefault(regKey, "AngleMax"s, (float)(M_PI / 2.0)) : (float)(M_PI / 2.0);
m_d.m_visible = fromMouseClick ? LoadValueBoolWithDefault(regKey, "Visible"s, true) : true;
m_d.m_tdr.m_TimerEnabled = fromMouseClick ? LoadValueBoolWithDefault(regKey, "TimerEnabled"s, false) : false;
m_d.m_tdr.m_TimerInterval = fromMouseClick ? LoadValueIntWithDefault(regKey, "TimerInterval"s, 100) : 100;
const HRESULT hr = LoadValue(regKey, "Surface"s, m_d.m_szSurface);
if ((hr != S_OK) || !fromMouseClick)
m_d.m_szSurface.clear();
SetDefaultPhysics(fromMouseClick);
m_d.m_twoWay = fromMouseClick ? LoadValueBoolWithDefault(regKey, "TwoWay"s, true) : true;
m_d.m_reflectionEnabled = fromMouseClick ? LoadValueBoolWithDefault(regKey, "ReflectionEnabled"s, true) : true;
#undef regKey
}
void Gate::WriteRegDefaults()
{
#define regKey regKey[RegName::DefaultPropsGate]
SaveValueFloat(regKey, "Length"s, m_d.m_length);
SaveValueFloat(regKey, "Height"s, m_d.m_height);
SaveValueFloat(regKey, "Rotation"s, m_d.m_rotation);
SaveValueBool(regKey, "ShowBracket"s, m_d.m_showBracket);
SaveValueBool(regKey, "Collidable"s, m_d.m_collidable);
SaveValueFloat(regKey, "AngleMin"s, m_d.m_angleMin);
SaveValueFloat(regKey, "AngleMax"s, m_d.m_angleMax);
SaveValueBool(regKey, "Visible"s, m_d.m_visible);
SaveValueBool(regKey, "TimerEnabled"s, m_d.m_tdr.m_TimerEnabled);
SaveValueInt(regKey, "TimerInterval"s, m_d.m_tdr.m_TimerInterval);
SaveValue(regKey, "Surface"s, m_d.m_szSurface);
SaveValueFloat(regKey, "Elasticity"s, m_d.m_elasticity);
SaveValueFloat(regKey, "Friction"s, m_d.m_friction);
SaveValueFloat(regKey, "Scatter"s, m_d.m_scatter);
SaveValueFloat(regKey, "GravityFactor"s, m_d.m_gravityfactor);
SaveValueBool(regKey, "TwoWay"s, m_d.m_twoWay);
SaveValueBool(regKey, "ReflectionEnabled"s, m_d.m_reflectionEnabled);
SaveValueInt(regKey, "GateType"s, m_d.m_type);
#undef regKey
}
float Gate::GetOpenAngle() const
{
return RADTOANG(g_pplayer ? m_phitgate->m_gateMover.m_angleMax : m_d.m_angleMax); // player active value
}
void Gate::SetOpenAngle(const float angle)
{
float newVal = ANGTORAD(angle);
if (g_pplayer)
{
if (newVal > m_d.m_angleMax) newVal = m_d.m_angleMax;
else if (newVal < m_d.m_angleMin) newVal = m_d.m_angleMin;
if (m_phitgate->m_gateMover.m_angleMin < newVal) // min is smaller
m_phitgate->m_gateMover.m_angleMax = newVal; // then set new maximum
else m_phitgate->m_gateMover.m_angleMin = newVal; // else set new min
}
else
m_d.m_angleMax = newVal;
}
float Gate::GetCloseAngle() const
{
return RADTOANG(g_pplayer ? m_phitgate->m_gateMover.m_angleMin : m_d.m_angleMin);
}
void Gate::SetCloseAngle(const float angle)
{
float newVal = ANGTORAD(angle);
if (g_pplayer)
{
if (newVal > m_d.m_angleMax) newVal = m_d.m_angleMax;
else if (newVal < m_d.m_angleMin) newVal = m_d.m_angleMin;
if (m_phitgate->m_gateMover.m_angleMax > newVal) // max is bigger
m_phitgate->m_gateMover.m_angleMin = newVal; // then set new minumum
else m_phitgate->m_gateMover.m_angleMax = newVal; // else set new max
}
else
m_d.m_angleMin = newVal;
}
void Gate::UIRenderPass1(Sur * const psur)
{
}
void Gate::UIRenderPass2(Sur * const psur)
{
psur->SetBorderColor(RGB(0, 0, 0), false, 0);
psur->SetLineColor(RGB(0, 0, 0), false, 2);
psur->SetObject(this);
const float halflength = m_d.m_length * 0.5f;
const float len1 = halflength *0.5f;
const float len2 = len1 * 0.5f;
Vertex2D tmp;
psur->Ellipse(m_d.m_vCenter.x, m_d.m_vCenter.y, halflength);
{
const float radangle = ANGTORAD(m_d.m_rotation);
{
const float sn = sinf(radangle);
const float cs = cosf(radangle);
psur->Line(m_d.m_vCenter.x + cs*halflength, m_d.m_vCenter.y + sn*halflength,
m_d.m_vCenter.x - cs*halflength, m_d.m_vCenter.y - sn*halflength);
// Draw Arrow
psur->SetLineColor(RGB(0, 0, 0), false, 1);
tmp.x = m_d.m_vCenter.x + sn*len1;
tmp.y = m_d.m_vCenter.y - cs*len1;
psur->Line(tmp.x, tmp.y,
m_d.m_vCenter.x, m_d.m_vCenter.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_vCenter.x + sn*len2, m_d.m_vCenter.y - cs*len2);
}
}
{
const float arrowang = ANGTORAD(m_d.m_rotation) - 0.6f;
const float sn = sinf(arrowang);
const float cs = cosf(arrowang);
psur->Line(tmp.x, tmp.y,
m_d.m_vCenter.x + sn*len2, m_d.m_vCenter.y - cs*len2);
}
if (m_d.m_twoWay)
{
const float radangle = ANGTORAD(m_d.m_rotation - 180.f);
{
const float sn = sinf(radangle);
const float cs = cosf(radangle);
// Draw Arrow
psur->SetLineColor(RGB(0, 0, 0), false, 1);
tmp.x = m_d.m_vCenter.x + sn*len1;
tmp.y = m_d.m_vCenter.y - cs*len1;
psur->Line(tmp.x, tmp.y,
m_d.m_vCenter.x, m_d.m_vCenter.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_vCenter.x + sn*len2, m_d.m_vCenter.y - cs*len2);
}
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_vCenter.x + sn*len2, m_d.m_vCenter.y - cs*len2);
}
}
void Gate::SetDefaultPhysics(bool fromMouseClick)
{
#define regKey regKey[RegName::DefaultPropsGate]
m_d.m_elasticity = fromMouseClick ? LoadValueFloatWithDefault(regKey, "Elasticity"s, 0.3f) : 0.3f;
m_d.m_friction = fromMouseClick ? LoadValueFloatWithDefault(regKey, "Friction"s, 0.02f) : 0.02f;
m_d.m_damping = fromMouseClick ? LoadValueFloatWithDefault(regKey, "AntiFriction"s, 0.985f) : 0.985f;
m_d.m_scatter = fromMouseClick ? LoadValueFloatWithDefault(regKey, "Scatter"s, 0.f) : 0.f;
m_d.m_gravityfactor = fromMouseClick ? LoadValueFloatWithDefault(regKey, "GravityFactor"s, 0.25f) : 0.25f;
#undef regKey
}
void Gate::RenderBlueprint(Sur *psur, const bool solid)
{
}
void Gate::GetTimers(vector<HitTimer*> &pvht)
{
IEditable::BeginPlay();
HitTimer * const pht = new HitTimer();
pht->m_interval = m_d.m_tdr.m_TimerInterval >= 0 ? max(m_d.m_tdr.m_TimerInterval, MAX_TIMER_MSEC_INTERVAL) : -1;
pht->m_nextfire = pht->m_interval;
pht->m_pfe = (IFireEvents *)this;
m_phittimer = pht;
if (m_d.m_tdr.m_TimerEnabled)
pvht.push_back(pht);
}
//
// license:GPLv3+
// Ported at: VisualPinball.Engine/VPT/Gate/GateHitGenerator.cs
//
void Gate::GetHitShapes(vector<HitObject*> &pvho)
{
const float height = m_ptable->GetSurfaceHeight(m_d.m_szSurface, m_d.m_vCenter.x, m_d.m_vCenter.y);
const float h = m_d.m_height; // relative height of the gate
const float halflength = m_d.m_length * 0.5f;
const float angleMin = min(m_d.m_angleMin, m_d.m_angleMax); // correct angle inversions
const float angleMax = max(m_d.m_angleMin, m_d.m_angleMax);
m_d.m_angleMin = angleMin;
m_d.m_angleMax = angleMax;
const float radangle = ANGTORAD(m_d.m_rotation);
const Vertex2D tangent(cosf(radangle), sinf(radangle));
const Vertex2D rgv[2] = { // oversize by the ball's radius to prevent the ball from clipping through
m_d.m_vCenter + (halflength + (float)PHYS_SKIN) * tangent,
m_d.m_vCenter - (halflength + (float)PHYS_SKIN) * tangent
};
if (!m_d.m_twoWay)
{
m_plineseg = new LineSeg(rgv[0], rgv[1], height, height + (float)(2.0*PHYS_SKIN)); //!! = ball diameter
m_plineseg->m_elasticity = m_d.m_elasticity;
m_plineseg->SetFriction(m_d.m_friction);
m_plineseg->m_scatter = ANGTORAD(m_d.m_scatter);
pvho.push_back(m_plineseg);
}
m_phitgate = new HitGate(this, height);
m_phitgate->m_twoWay = m_d.m_twoWay;
m_phitgate->m_obj = (IFireEvents*)this;
m_phitgate->m_fe = true;
m_phitgate->m_enabled = m_d.m_collidable;
pvho.push_back(m_phitgate);
if (m_d.m_showBracket)
{
HitCircle *phitcircle;
phitcircle = new HitCircle(m_d.m_vCenter + halflength * tangent, 0.01f, height, height + h);
pvho.push_back(phitcircle);
phitcircle = new HitCircle(m_d.m_vCenter - halflength * tangent, 0.01f, height, height + h);
pvho.push_back(phitcircle);
}
}
//
// end of license:GPLv3+, back to 'old MAME'-like
//
void Gate::GetHitShapesDebug(vector<HitObject*> &pvho)
{
}
void Gate::EndPlay()
{
IEditable::EndPlay();
m_phitgate = nullptr;
m_plineseg = nullptr;
SAFE_BUFFER_RELEASE(m_bracketVertexBuffer);
SAFE_BUFFER_RELEASE(m_bracketIndexBuffer);
SAFE_BUFFER_RELEASE(m_wireIndexBuffer);
if (m_wireVertexBuffer)
{
SAFE_BUFFER_RELEASE(m_wireVertexBuffer);
m_vertexbuffer_angle = FLT_MAX;
}
}
void Gate::UpdateWire()
{
if (m_phitgate->m_gateMover.m_angle == m_vertexbuffer_angle)
return;
m_vertexbuffer_angle = m_phitgate->m_gateMover.m_angle;
Matrix3D fullMatrix, tempMat;
fullMatrix.RotateXMatrix(m_d.m_twoWay ? m_phitgate->m_gateMover.m_angle : -m_phitgate->m_gateMover.m_angle);
tempMat.RotateZMatrix(ANGTORAD(m_d.m_rotation));
tempMat.Multiply(fullMatrix, fullMatrix);
Matrix3D vertMatrix;
tempMat.SetScaling(m_d.m_length, m_d.m_length, m_d.m_length*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set]);
tempMat.Multiply(fullMatrix, vertMatrix);
tempMat.SetTranslation(m_d.m_vCenter.x, m_d.m_vCenter.y, m_d.m_height*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set] + m_baseHeight);
tempMat.Multiply(vertMatrix, vertMatrix);
Vertex3D_NoTex2 *buf;
m_wireVertexBuffer->lock(0, 0, (void**)&buf, VertexBuffer::DISCARDCONTENTS);
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;
}
m_wireVertexBuffer->unlock();
}
void Gate::RenderObject()
{
UpdateWire();
RenderDevice * const pd3dDevice = g_pplayer->m_pin3d.m_pd3dPrimaryDevice;
const Material * const mat = m_ptable->GetMaterial(m_d.m_szMaterial);
pd3dDevice->basicShader->SetMaterial(mat, false);
pd3dDevice->SetRenderStateDepthBias(0.0f);
pd3dDevice->SetRenderState(RenderDevice::ZWRITEENABLE, RenderDevice::RS_TRUE);
pd3dDevice->SetRenderStateCulling(RenderDevice::CULL_CCW);
pd3dDevice->basicShader->SetTechniqueMetal(SHADER_TECHNIQUE_basic_without_texture, mat->m_bIsMetal);
pd3dDevice->basicShader->Begin();
// render bracket
if (m_d.m_showBracket)
pd3dDevice->DrawIndexedPrimitiveVB(RenderDevice::TRIANGLELIST, MY_D3DFVF_NOTEX2_VERTEX, m_bracketVertexBuffer, 0, gateBracketNumVertices, m_bracketIndexBuffer, 0, gateBracketNumIndices);
// render wire
pd3dDevice->DrawIndexedPrimitiveVB(RenderDevice::TRIANGLELIST, MY_D3DFVF_NOTEX2_VERTEX, m_wireVertexBuffer, 0, m_numVertices, m_wireIndexBuffer, 0, m_numIndices);
pd3dDevice->basicShader->End();
}
void Gate::RenderDynamic()
{
TRACE_FUNCTION();
if (!m_phitgate->m_gateMover.m_visible)
return;
if (m_ptable->m_reflectionEnabled && !m_d.m_reflectionEnabled)
return;
RenderObject();
}
void Gate::ExportMesh(ObjLoader& loader)
{
char name[sizeof(m_wzName)/sizeof(m_wzName[0])];
WideCharToMultiByteNull(CP_ACP, 0, m_wzName, -1, name, sizeof(name), nullptr, nullptr);
m_baseHeight = m_ptable->GetSurfaceHeight(m_d.m_szSurface, m_d.m_vCenter.x, m_d.m_vCenter.y)*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
if (m_d.m_showBracket)
{
const string subName = name + "Bracket"s;
loader.WriteObjectName(subName);
Vertex3D_NoTex2* const buf = new Vertex3D_NoTex2[gateBracketNumVertices];
GenerateBracketMesh(buf);
loader.WriteVertexInfo(buf, gateBracketNumVertices);
const Material * const mat = m_ptable->GetMaterial(m_d.m_szMaterial);
loader.WriteMaterial(m_d.m_szMaterial, string(), mat);
loader.UseTexture(m_d.m_szMaterial);
loader.WriteFaceInfoList(gateBracketIndices, gateBracketNumIndices);
loader.UpdateFaceOffset(gateBracketNumVertices);
delete[] buf;
}
SetGateType(m_d.m_type);
const string subName = name + "Wire"s;
loader.WriteObjectName(subName);
Vertex3D_NoTex2* const buf = new Vertex3D_NoTex2[m_numVertices];
GenerateWireMesh(buf);
loader.WriteVertexInfo(buf, m_numVertices);
const Material * const mat = m_ptable->GetMaterial(m_d.m_szMaterial);
loader.WriteMaterial(m_d.m_szMaterial, string(), mat);
loader.UseTexture(m_d.m_szMaterial);
loader.WriteFaceInfoList(m_indices, m_numIndices);
loader.UpdateFaceOffset(m_numVertices);
delete[] buf;
}
void Gate::GenerateBracketMesh(Vertex3D_NoTex2 *buf)
{
Matrix3D fullMatrix;
fullMatrix.RotateZMatrix(ANGTORAD(m_d.m_rotation));
for (unsigned int i = 0; i < gateBracketNumVertices; i++)
{
Vertex3Ds vert(gateBracket[i].x, gateBracket[i].y, gateBracket[i].z);
vert = fullMatrix.MultiplyVector(vert);
buf[i].x = vert.x*m_d.m_length + m_d.m_vCenter.x;
buf[i].y = vert.y*m_d.m_length + m_d.m_vCenter.y;
buf[i].z = vert.z*m_d.m_length*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set] + (m_d.m_height*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set] + m_baseHeight);
vert = Vertex3Ds(gateBracket[i].nx, gateBracket[i].ny, gateBracket[i].nz);
vert = fullMatrix.MultiplyVectorNoTranslate(vert);
buf[i].nx = vert.x;
buf[i].ny = vert.y;
buf[i].nz = vert.z;
buf[i].tu = gateBracket[i].tu;
buf[i].tv = gateBracket[i].tv;
}
}
void Gate::GenerateWireMesh(Vertex3D_NoTex2 *buf)
{
Matrix3D fullMatrix;
fullMatrix.RotateZMatrix(ANGTORAD(m_d.m_rotation));
for (unsigned int i = 0; i < m_numVertices; i++)
{
Vertex3Ds vert(m_vertices[i].x, m_vertices[i].y, m_vertices[i].z);
vert = fullMatrix.MultiplyVector(vert);
buf[i].x = vert.x*m_d.m_length + m_d.m_vCenter.x;
buf[i].y = vert.y*m_d.m_length + m_d.m_vCenter.y;
buf[i].z = vert.z*m_d.m_length*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set] + (m_d.m_height*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set] + m_baseHeight);
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;
}
}
void Gate::RenderSetup()
{
SAFE_BUFFER_RELEASE(m_bracketIndexBuffer);
m_bracketIndexBuffer = IndexBuffer::CreateAndFillIndexBuffer(gateBracketNumIndices, gateBracketIndices, PRIMARY_DEVICE);
SAFE_BUFFER_RELEASE(m_bracketVertexBuffer);
m_bracketVertexBuffer = new VertexBuffer(g_pplayer->m_pin3d.m_pd3dPrimaryDevice, gateBracketNumVertices, 0, MY_D3DFVF_NOTEX2_VERTEX);
SetGateType(m_d.m_type);
m_baseHeight = m_ptable->GetSurfaceHeight(m_d.m_szSurface, m_d.m_vCenter.x, m_d.m_vCenter.y)*m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
Vertex3D_NoTex2 *buf;
m_bracketVertexBuffer->lock(0, 0, (void**)&buf, VertexBuffer::WRITEONLY);
GenerateBracketMesh(buf);
m_bracketVertexBuffer->unlock();
SAFE_BUFFER_RELEASE(m_wireIndexBuffer);
m_wireIndexBuffer = IndexBuffer::CreateAndFillIndexBuffer(m_numIndices, m_indices, PRIMARY_DEVICE);
SAFE_BUFFER_RELEASE(m_wireVertexBuffer);
m_wireVertexBuffer = new VertexBuffer(g_pplayer->m_pin3d.m_pd3dPrimaryDevice, m_numVertices, USAGE_DYNAMIC, MY_D3DFVF_NOTEX2_VERTEX);
m_wireVertexBuffer->lock(0, 0, (void**)&buf, VertexBuffer::DISCARDCONTENTS);
GenerateWireMesh(buf);
m_wireVertexBuffer->unlock();
}
void Gate::RenderStatic()
{
}
void Gate::SetObjectPos()
{
m_vpinball->SetObjectPosCur(m_d.m_vCenter.x, m_d.m_vCenter.y);
}
void Gate::MoveOffset(const float dx, const float dy)
{
m_d.m_vCenter.x += dx;
m_d.m_vCenter.y += dy;
}
Vertex2D Gate::GetCenter() const
{
return m_d.m_vCenter;
}
void Gate::PutCenter(const Vertex2D& pv)
{
m_d.m_vCenter = pv;
}
HRESULT Gate::SaveData(IStream *pstm, HCRYPTHASH hcrypthash, const bool backupForPlay)
{
BiffWriter bw(pstm, hcrypthash);
bw.WriteVector2(FID(VCEN), m_d.m_vCenter);
bw.WriteFloat(FID(LGTH), m_d.m_length);
bw.WriteFloat(FID(HGTH), m_d.m_height);
bw.WriteFloat(FID(ROTA), m_d.m_rotation);
bw.WriteString(FID(MATR), m_d.m_szMaterial);
bw.WriteBool(FID(TMON), m_d.m_tdr.m_TimerEnabled);
bw.WriteBool(FID(GSUP), m_d.m_showBracket);
bw.WriteBool(FID(GCOL), m_d.m_collidable);
bw.WriteInt(FID(TMIN), m_d.m_tdr.m_TimerInterval);
bw.WriteString(FID(SURF), m_d.m_szSurface);
bw.WriteFloat(FID(ELAS), m_d.m_elasticity);
bw.WriteFloat(FID(GAMA), m_d.m_angleMax);
bw.WriteFloat(FID(GAMI), m_d.m_angleMin);
bw.WriteFloat(FID(GFRC), m_d.m_friction);
bw.WriteFloat(FID(AFRC), m_d.m_damping);
bw.WriteFloat(FID(GGFC), m_d.m_gravityfactor);
bw.WriteBool(FID(GVSB), m_d.m_visible);
bw.WriteWideString(FID(NAME), m_wzName);
bw.WriteBool(FID(TWWA), m_d.m_twoWay);
bw.WriteBool(FID(REEN), m_d.m_reflectionEnabled);
bw.WriteInt(FID(GATY), m_d.m_type);
ISelect::SaveData(pstm, hcrypthash);
bw.WriteTag(FID(ENDB));
return S_OK;
}
HRESULT Gate::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();
return S_OK;
}
bool Gate::LoadToken(const int id, BiffReader * const pbr)
{
switch(id)
{
case FID(PIID): pbr->GetInt((int *)pbr->m_pdata); break;
case FID(GATY):
{
pbr->GetInt(&m_d.m_type);
if (m_d.m_type < GateWireW || m_d.m_type > GateLongPlate) // for tables that were saved in the phase where m_type could've been undefined
m_d.m_type = GateWireW;
break;
}
case FID(VCEN): pbr->GetVector2(m_d.m_vCenter); break;
case FID(LGTH): pbr->GetFloat(m_d.m_length); break;
case FID(HGTH): pbr->GetFloat(m_d.m_height); break;
case FID(ROTA): pbr->GetFloat(m_d.m_rotation); break;
case FID(MATR): pbr->GetString(m_d.m_szMaterial); break;
case FID(TMON): pbr->GetBool(m_d.m_tdr.m_TimerEnabled); break;
case FID(GSUP): pbr->GetBool(m_d.m_showBracket); break;
case FID(GCOL): pbr->GetBool(m_d.m_collidable); break;
case FID(TWWA): pbr->GetBool(m_d.m_twoWay); break;
case FID(GVSB): pbr->GetBool(m_d.m_visible); break;
case FID(REEN): pbr->GetBool(m_d.m_reflectionEnabled); break;
case FID(TMIN): pbr->GetInt(m_d.m_tdr.m_TimerInterval); break;
case FID(SURF): pbr->GetString(m_d.m_szSurface); break;
case FID(NAME): pbr->GetWideString(m_wzName,sizeof(m_wzName)/sizeof(m_wzName[0])); break;
case FID(ELAS): pbr->GetFloat(m_d.m_elasticity); break;
case FID(GAMA): pbr->GetFloat(m_d.m_angleMax); break;
case FID(GAMI): pbr->GetFloat(m_d.m_angleMin); break;
case FID(GFRC): pbr->GetFloat(m_d.m_friction); break;
case FID(AFRC): pbr->GetFloat(m_d.m_damping); break;
case FID(GGFC): pbr->GetFloat(m_d.m_gravityfactor); break;
default: ISelect::LoadToken(id, pbr); break;
}
return true;
}
HRESULT Gate::InitPostLoad()
{
return S_OK;
}
STDMETHODIMP Gate::InterfaceSupportsErrorInfo(REFIID riid)
{
static const IID* arr[] =
{
&IID_IGate,
};
for (size_t i = 0; i < sizeof(arr) / sizeof(arr[0]); i++)
{
if (InlineIsEqualGUID(*arr[i], riid))
return S_OK;
}
return S_FALSE;
}
STDMETHODIMP Gate::get_Length(float *pVal)
{
*pVal = m_d.m_length;
return S_OK;
}
STDMETHODIMP Gate::put_Length(float newVal)
{
m_d.m_length = newVal;
return S_OK;
}
STDMETHODIMP Gate::get_Height(float *pVal)
{
*pVal = m_d.m_height;
return S_OK;
}
STDMETHODIMP Gate::put_Height(float newVal)
{
m_d.m_height = newVal;
return S_OK;
}
STDMETHODIMP Gate::get_Rotation(float *pVal)
{
*pVal = m_d.m_rotation;
return S_OK;
}
STDMETHODIMP Gate::put_Rotation(float newVal)
{
m_d.m_rotation = newVal;
return S_OK;
}
STDMETHODIMP Gate::get_X(float *pVal)
{
*pVal = m_d.m_vCenter.x;
return S_OK;
}
STDMETHODIMP Gate::put_X(float newVal)
{
m_d.m_vCenter.x = newVal;
return S_OK;
}
STDMETHODIMP Gate::get_Y(float *pVal)
{
*pVal = m_d.m_vCenter.y;
return S_OK;
}
STDMETHODIMP Gate::put_Y(float newVal)
{
m_d.m_vCenter.y = newVal;
return S_OK;
}
STDMETHODIMP Gate::get_Surface(BSTR *pVal)
{
WCHAR wz[MAXTOKEN];
MultiByteToWideCharNull(CP_ACP, 0, m_d.m_szSurface.c_str(), -1, wz, MAXTOKEN);
*pVal = SysAllocString(wz);
return S_OK;
}
STDMETHODIMP Gate::put_Surface(BSTR newVal)
{
char buf[MAXTOKEN];
WideCharToMultiByteNull(CP_ACP, 0, newVal, -1, buf, MAXTOKEN, nullptr, nullptr);
m_d.m_szSurface = buf;
return S_OK;
}
STDMETHODIMP Gate::get_Material(BSTR *pVal)
{
WCHAR wz[MAXNAMEBUFFER];
MultiByteToWideCharNull(CP_ACP, 0, m_d.m_szMaterial.c_str(), -1, wz, MAXNAMEBUFFER);
*pVal = SysAllocString(wz);
return S_OK;
}
STDMETHODIMP Gate::put_Material(BSTR newVal)
{
char buf[MAXNAMEBUFFER];
WideCharToMultiByteNull(CP_ACP, 0, newVal, -1, buf, MAXNAMEBUFFER, nullptr, nullptr);
m_d.m_szMaterial = buf;
return S_OK;
}
STDMETHODIMP Gate::get_Open(VARIANT_BOOL *pVal)
{
*pVal = FTOVB(m_phitgate ? m_phitgate->m_gateMover.m_open : false);
return S_OK;
}
STDMETHODIMP Gate::put_Open(VARIANT_BOOL newVal)
{
if (m_phitgate)
{
m_phitgate->m_gateMover.m_hitDirection = false;
m_phitgate->m_gateMover.m_angleMax = m_d.m_angleMax;
m_phitgate->m_gateMover.m_angleMin = m_d.m_angleMin;
m_phitgate->m_gateMover.m_forcedMove = true;
m_phitgate->m_gateMover.m_open = VBTOb(newVal);
if (m_phitgate->m_gateMover.m_open)
{
m_phitgate->m_enabled = false;
if (!m_d.m_twoWay)
m_plineseg->m_enabled = false;
if (m_phitgate->m_gateMover.m_angle < m_phitgate->m_gateMover.m_angleMax)
m_phitgate->m_gateMover.m_anglespeed = 0.2f;
}
else
{
m_phitgate->m_enabled = m_d.m_collidable;
if (!m_d.m_twoWay)
m_plineseg->m_enabled = m_d.m_collidable;
if (m_phitgate->m_gateMover.m_angle > m_phitgate->m_gateMover.m_angleMin)
m_phitgate->m_gateMover.m_anglespeed = -0.2f;
}
}
return S_OK;
}
STDMETHODIMP Gate::get_Elasticity(float *pVal)
{
*pVal = m_d.m_elasticity;
return S_OK;
}
STDMETHODIMP Gate::put_Elasticity(float newVal)
{
m_d.m_elasticity = newVal;
return S_OK;
}
STDMETHODIMP Gate::get_ShowBracket(VARIANT_BOOL *pVal)
{
*pVal = FTOVB(m_d.m_showBracket);
return S_OK;
}
STDMETHODIMP Gate::put_ShowBracket(VARIANT_BOOL newVal)
{
m_d.m_showBracket = VBTOb(newVal);
return S_OK;
}
STDMETHODIMP Gate::get_CloseAngle(float *pVal)
{
*pVal = GetCloseAngle();
return S_OK;
}
STDMETHODIMP Gate::put_CloseAngle(float newVal)
{
if (m_d.m_collidable)
{
newVal = 0;
ShowError("Gate is collidable! closing angles other than 0 aren't possible!");
}
SetCloseAngle(newVal);
return S_OK;
}
STDMETHODIMP Gate::get_OpenAngle(float *pVal)
{
*pVal = GetOpenAngle();
return S_OK;
}
STDMETHODIMP Gate::put_OpenAngle(float newVal)
{
if (m_d.m_collidable)
{
newVal = (float)(M_PI / 2.0);
ShowError("Gate is collidable! open angles other than 90 aren't possible!");
}
SetOpenAngle(newVal);
return S_OK;
}
STDMETHODIMP Gate::get_Collidable(VARIANT_BOOL *pVal)
{
*pVal = FTOVB((g_pplayer) ? m_phitgate->m_enabled : m_d.m_collidable);
return S_OK;
}
STDMETHODIMP Gate::put_Collidable(VARIANT_BOOL newVal)
{
if (g_pplayer)
{
m_phitgate->m_enabled = VBTOb(newVal);
if (!m_d.m_twoWay)
m_plineseg->m_enabled = VBTOb(newVal);
m_phitgate->m_gateMover.m_angleMax = m_d.m_angleMax;
m_phitgate->m_gateMover.m_angleMin = m_d.m_angleMin;
if (m_phitgate->m_enabled) m_phitgate->m_gateMover.m_angleMin = 0;
}
else
{
m_d.m_collidable = VBTOb(newVal);
if (m_d.m_collidable) m_d.m_angleMin = 0;
}
return S_OK;
}
STDMETHODIMP Gate::Move(int dir, float speed, float angle) //move non-collidable gate, for graphic effects only
{
if (g_pplayer)
{
m_phitgate->m_gateMover.m_hitDirection = false;
m_phitgate->m_gateMover.m_forcedMove = true;
m_phitgate->m_gateMover.m_open = true; // move always turns off natural swing
m_phitgate->m_enabled = false; // and collidable off
if (!m_d.m_twoWay)
m_plineseg->m_enabled = false;
if (speed <= 0.0f) speed = 0.2f; //default gate angle speed
else speed *= (float)(M_PI / 180.0); // convert to radians
if (!dir || angle != 0) // if no direction or non-zero angle
{
angle *= (float)(M_PI / 180.0); // convert to radians
if (angle < m_d.m_angleMin) angle = m_d.m_angleMin;
else if (angle > m_d.m_angleMax) angle = m_d.m_angleMax;
const float da = angle - m_phitgate->m_gateMover.m_angle; //calc true direction
if (da > 1.0e-5f) dir = +1;
else if (da < -1.0e-5f) dir = -1;
else
{
dir = 0; // do nothing
m_phitgate->m_gateMover.m_anglespeed = 0; //stop
}
}
else { angle = (dir < 0) ? m_d.m_angleMin : m_d.m_angleMax; } //dir selected and angle not specified
if (dir > 0)
{
m_phitgate->m_gateMover.m_angleMax = angle;
if (m_phitgate->m_gateMover.m_angle < m_phitgate->m_gateMover.m_angleMax)
m_phitgate->m_gateMover.m_anglespeed = speed;
}
else if (dir < 0)
{
m_phitgate->m_gateMover.m_angleMin = angle;
if (m_phitgate->m_gateMover.m_angle > m_phitgate->m_gateMover.m_angleMin)
m_phitgate->m_gateMover.m_anglespeed = -speed;