UD Poblense: Leading the Preferente de Mallorca - Squad, Achievements & Stats

Overview of UD Poblense

Unión Deportiva Poblense, commonly known as UD Poblense, is a football team based in the Balearic Islands, Spain. Competing in the regional leagues, this club has a rich history and a dedicated fan base. Known for its strategic gameplay and resilient squad, UD Poblense is an intriguing option for sports betting enthusiasts.

Team History and Achievements

Founded in 1967, UD Poblense has been a staple in regional football. The team has experienced several notable seasons, achieving commendable league positions and earning respect in local competitions. While they may not have extensive national titles, their consistent performance in regional leagues highlights their dedication and skill.

Current Squad and Key Players

The current squad of UD Poblense boasts talented players who are pivotal to the team’s success. Key players include:

• Goalkeeper: Juan Martínez – Known for his agility and shot-stopping ability.
• Defenders: Carlos López – A stalwart defender with excellent positioning skills.
• Midfielders: Diego Sánchez – A creative playmaker with a knack for setting up goals.
• Forwards: Miguel Torres – A prolific striker with a sharp eye for goal.

Team Playing Style and Tactics

UD Poblense typically employs a 4-3-3 formation, focusing on strong defensive lines and quick counter-attacks. Their strategy emphasizes ball control and tactical flexibility, allowing them to adapt to various opponents effectively. Strengths include disciplined defense and swift transitions, while weaknesses may involve occasional lapses in midfield control.

Interesting Facts and Unique Traits

The team is affectionately nicknamed “Los Rojillos” (The Little Reds) by their fans. They have a passionate fanbase that supports them through thick and thin. Rivalries with neighboring teams add excitement to their matches, while traditions like pre-game rituals strengthen community ties.

Lists & Rankings of Players & Stats

• ✅ Top Scorer: Miguel Torres
• ❌ Most Disciplinary Issues: Luis García
• 🎰 Player with Most Assists: Diego Sánchez
• 💡 Rising Star: Pedro Hernández

Comparisons with Other Teams in the League

In comparison to other teams in the league, UD Poblense stands out for its tactical discipline and strong defensive record. While some rivals may boast more star power, UD Poblense’s cohesive team play often gives them an edge in tightly contested matches.

Case Studies or Notable Matches

A memorable match was against CD Ibiza last season, where UD Poblense secured a dramatic victory through a last-minute goal by Miguel Torres. This game exemplified their resilience and ability to perform under pressure.

Team Stats Summary
Last Five Matches Form	Head-to-Head Records Against Key Rivals	Odds for Upcoming Matches
W-L-W-D-L	Favorable against most local rivals except CD Ibiza	Average odds suggest competitive but not overwhelming favorites

Tips & Recommendations for Betting Analysis

To analyze UD Poblense effectively for betting purposes:

• Analyze recent form trends to gauge momentum.
• Evaluate head-to-head records against upcoming opponents.
• Closely watch player performances and any injury updates.
• Leverage statistical insights into their playing style strengths versus opponent weaknesses.

Betting Tip 💡 Advice Block:

Betting on UD Poblense can be lucrative when considering their solid defensive record and ability to capitalize on counter-attacks. Look for value bets when they face teams with weaker defenses or when they are at home where they tend to perform better.

Quotes or Expert Opinions About the Team</h3
#ifndef _TILEMAP_H_
#define _TILEMAP_H_

#include “Game.h”

struct TileMap {
int width;
int height;
char** tiles;

TileMap();
~TileMap();

void Init(int w = TILEMAP_WIDTH_DEFAULT,
int h = TILEMAP_HEIGHT_DEFAULT);
void Destroy();
void SetTile(int x,int y,char tile);
char GetTile(int x,int y);
};

#endif // !_TILEMAP_H_GrimmNiko/OpenGL<|file_sep[Window][Debug##Default]
Pos=60,60
Size=400,400
Collapsed=0

[Window][ImGui Demo]
Pos=2148,-9
Size=550,680
Collapsed=0

[Window][Hello world!]
Pos=50,-6
Size=339,137
Collapsed=0

[Window][Debug]
Pos=-10,-11
Size=347,107
Collapsed=0

[Window][About ImGui]
Pos=-10,-11
Size=552,222
Collapsed=0

[Window][Another Window]
Pos=-10,-11
Size=1988,1076
Collapsed=0

[Window][Example: Console]
Pos=-10,-11
Size=520,600
Collapsed=0

[Window][Example: Log]
Pos=-10,-11
Size=520,600
Collapsed=0

[Window][Example: Custom rendering]
Pos=-10,-11
Size=520,666
Collapsed=0

[Window][Example: Property editor]
Pos=-10,-11
Size=430,450
Collapsed=0

[Window][Same title as before]
Pos=-10,-11
Size=256,1125
Collapsed=0

[Window][###AnimatedTitle]
Pos=-10,-11
Size=260,99
Collapsed=0

[Docking][Data]

GrimmNiko/OpenGL= v3.
Also you will need either [GLFW](http://www.glfw.org/) version >= v3 or [SDL](https://www.libsdl.org/) version >= v1.

To run this project you will need [GLAD](https://glad.dav1d.de/), which provides all OpenGL function pointers.

You can download GLAD from https://glad.dav1d.de/
Once downloaded extract it.
Open GLAD Generator web page.
Select your OpenGL version.
Check Generate till version box.
Check Generate loaders box.
Select CMake as language.
Check CMake Generate option.
Select all extensions you want to use or leave blank if unsure.
Click Generate button.

Then move the glad.c file from GLAD directory into this projects src folder.<|file_sep {"camera_pos":{"x":27,"y":16,"z":7},"camera_target":{"x":27,"y":16,"z":13},"light_pos":{"x":15,"y":25,"z":-9}}GrimmNiko/OpenGL<|file_sep clientId = "51c6b90a-cf52-45e4-a00f-fb64ae31c5a7"GrimmNiko/OpenGL<|file_sep// LearnOpenGL.com
// Complete C++ Tutorials
// Copyright ©2021
// http://www.LearnOpenGL.com

#include "Game.h"

#include "imgui.h"
#include "imgui_impl_glfw_gl3.h"

#include "TextureManager.h"
#include "Camera.h"
#include "ShaderProgram.h"
#include "MeshRenderer.h"
#include "ModelLoader.h"
#include "Entity.h"
#include "TileMap.h"

using namespace glm;

Game::Game() {
running = true;
}

void Game::Init() {
GLFWwindow* window = initGLFW();
initGLAD(window);
ImGui_ImplGlfwGL3_Init(window);

// Initialize camera
camera.Init(vec3(20.f * sin(DEGTORAD(30)),20.f * cos(DEGTORAD(30)),20.f * cos(DEGTORAD(30))), vec3(27.f / sqrt(14),16.f / sqrt(14),13.f / sqrt(14)));

// Load shaders
shaderProgram.Load("shaders/shader.vs", "shaders/shader.fs");
shaderLight.Load("shaders/light_shader.vs", "shaders/light_shader.fs");

// Create meshes
meshQuad.CreateQuad();
meshPlane.CreatePlane();
meshCube.CreateCube();

// Create textures
texture.Load("textures/grass.png");
textureBrick.Load("textures/brick.png");
textureWall.Load("textures/wall.png");
textureTree.Load("textures/tree.png");

// Load models
modelTree.LoadModel("models/tree.obj");
modelHouse.LoadModel("models/house.obj");

// Create entities
entityTree.SetModel(&modelTree);
entityTree.SetTexture(&textureTree);
entityHouse.SetModel(&modelHouse);
entityHouse.SetTexture(&textureWall);
entityBrickWall.SetMesh(&meshPlane);
entityBrickWall.SetTexture(&textureBrick);

tileMap.Init(TILEMAP_WIDTH_DEFAULT,TILEMAP_HEIGHT_DEFAULT);

for (int i = TILEMAP_WIDTH_DEFAULT /4;i<TILEMAP_WIDTH_DEFAULT – TILEMAP_WIDTH_DEFAULT /4;i++) {
for (int j = TILEMAP_HEIGHT_DEFAULT /4;j<TILEMAP_HEIGHT_DEFAULT – TILEMAP_HEIGHT_DEFAULT /4;j++) {
tileMap.SetTile(i,j,'#');
if (i%5==1 && j%5==1) {
tileMap.SetTile(i,j,'t');
Entity tree;
tree.Position(vec3(i,j,.5f));
tree.Scale(vec3(.25f,.25f,.25f));
tree.Rotation(vec3(-90.f));
tree.RotateSpeed(vec3(.5f));
tree.TurnSpeed(vec3(.05f));
tree.Color(vec4(255.f));
tree.SetMesh(&meshCube);
tree.SetTexture(&textureTree);
trees.push_back(tree);
}
else if ((i+j)%7==0) {
tileMap.SetTile(i,j,'b');
}
else if ((i-j)%9==0) {
tileMap.SetTile(i,j,'w');
}
else {
tileMap.SetTile(i,j,'g');
}
}

}

for (int i = TILEMAP_WIDTH_DEFAULT /4;i<TILEMAP_WIDTH_DEFAULT – TILEMAP_WIDTH_DEFAULT /4;i++) {
for (int j = TILEMAP_HEIGHT_DEFAULT /4;j<TILEMAP_HEIGHT_DEFAULT – TILEMAP_HEIGHT_DEFAULT /4;j++) {

if (tileMap.GetTile(i,j)=='#') {

if (((i+1)<TILEMAP_WIDTH && tileMap.GetTile(i+1,j)=='#') && ((j+1)<TILEMAP_HEIGHT && tileMap.GetTile(i,j+1)=='#')) {

Entity house;
vec3 pos((float)i,(float)j,.5f);
pos += .5f;
pos.y -= .25f;

vec3 scale(.75f,.25f,.75f);

vec4 color(.75f,.75f,.75f,.75f);

bool rotX=false;
bool rotY=false;

switch(rand()%6)
{
case 't':
scale.y+=.5;
break;
case 'b':
scale.z+=.5;
break;
case 'l':
pos.x-=scale.x*.5;rotX=true;break;
case 'r':
pos.x+=scale.x*.5;rotX=true;break;
case 'u':
pos.y+=scale.y*.5;rotY=true;break;
case 'd':
pos.y-=scale.y*.5;rotY=true;break;
default:
break;
}

if(rotX){
if(rotY){

switch(rand()%6)
{
case 't':house.Rotation(vec3(-90));break;//TL
case 'b':house.Rotation(vec3(-90));house.Position(pos);break;//BL
case 'l':house.Rotation(vec3(-180));break;//LL
case 'r':house.Rotation(vec3());break;//LR
case 'u':house.Rotation(vec3(-90));pos.z-=scale.z*.5;break;//UL
case 'd':house.Rotation(vec3(-90));pos.z+=scale.z*.5;break;//DL
default:
break;
}
}
else{

switch(rand()%6)
{
case 't':house.Rotation(vec3(-90));pos.z-=scale.z*.5;break;//TopLeft(TL)
case 'b':house.Position(pos);break;//BottomLeft(BL)
case 'l':house.Rotation(vec3(-180));pos.z-=scale.z*.5;break;//LeftLower(LL)
case 'r':house.Position(pos);pos.z+=scale.z*.5;break;//RightLower(LR)
case 'u':house.Rotation(vec3(-90));break;//UpperLeft(UL)
case'd':house.Rotation(vec3(-90));pos.z+=scale.z*.5;break;//DownLeft(DL)
default:
break;
}
}

else{
if(rotY){
switch(rand()%6)
{
case't': house.Position(pos); pos.x-=scale.x*.5; break; //TopLeft(TL)
case'b': house.Position(pos); break; //BottomLeft(BL)
case'l': house.Position(pos); break; //LeftLower(LL)
case'r': house.Position(pos); pos.x+=scale.x*.5; break; //RightLower(LR)
case'u': house.Position(pos); pos.y+=scale.y*.5; pos.x-=scale.x*.5; break; //UpperLeft(UL)
case'd' : house.Position(pos); pos.y-=scale.y*.5 ; break ; //DownLeft(DL)

default:
break;

}

}
else{

switch(rand()%6){
case't' : house.Position(pos); break ; //Top(TopCenter(TC))
case'b' : house.Position(pos); break ; //Bottom(BottomCenter(BC))
case'l' : house.Position(pos); pos.x -= scale.x *.50 ;break ; // LeftLower(LLC)
case'r' : house.Position(pos); pos.x += scale.x *.50 ;break ; // RightLower(RLC)
case'u' : house.Position(pos); pos.y += scale.y *.50 ; break ; // Upper(UU)
case'd' : house.Position(pos); pos.y -= scale.y *.50 ;break ;
default:
break;

}

}

}

entityHouseList.push_back(house);

continue;

}

}

}

for(int i=TILEMAP_WIDTH/4;i<TILEMAP_WIDTH-TILEMAP_WIDTH/4;i++){
for(int j=TILEMAP_HEIGHT/4;joffsetInstanceAttributes.location);
glEnableVertexAttribArray(lightAttributes->colorInstanceAttributes.location);
glEnableVertexAttribArray(lightAttributes->radiusInstanceAttributes.location);
glEnableVertexAttribArray(lightAttributes->typeInstanceAttributes.location);

glVertexAttribDivisor(lightAttributes->offsetInstanceAttributes.location ,lightAttributes->offsetInstanceAttributes.divisor );
glVertexAttribDivisor(lightAttributes->colorInstanceAttributes.location ,lightAttributes->colorInstanceAttributes.divisor );
glVertexAttribDivisor(lightAttributes->radiusInstanceAttributes.location ,lightAttributes->radiusInstanceAttributes.divisor );
glVertexAttribDivisor(lightAttributes->typeInstanceAttributes.location ,lightAttributes->typeInstanceAttributes.divisor );

glmDrawArraysInstancedBaseVertex(GL_POINTS,numLights,GL_POINTS,numLights,tilesDrawnFromStartOfVbo + numEntitiesInGame*numIndicesPerEntity + numTexturesInAllEntities + numVerticesPerQuad*numQuadsRendered + numVerticesPerPlane*numPlanesRendered + numVerticesPerCube*numCubesRendered + numVerticesPerModel*numModelsRendered );

shaderProgram.Use();

shaderProgram.BindUniformMatrices(camera.viewMatrix,camera.projectionMatrix,camera.cameraPosition,camera.cameraTarget,camera.cameraUpVector,camera.lightDirection,camera.lightIntensity,
cameras[cameras.size()-1].lightAttenuationFactorOne,
cameras[cameras.size()-1].lightAttenuationFactorTwo );

glmDrawArraysInstancedBaseVertex(GL_TRIANGLES,
numIndicesInAllEntities,
GL_TRIANGLES,
numQuadsRendered,
tilesDrawnFromStartOfVbo + numEntitiesInGame*numIndicesPerEntity + numTexturesInAllEntities +
numVerticesPerQuad*numQuadsRendered +
numVerticesPerPlane*numPlanesRendered +
numVerticesPerCube*numCubesRendered +
numVerticesPerModel*numModelsRendered );

glmDrawArraysInstancedBaseVertex(GL_TRIANGLES,
numIndicesInAllEntities + numIndicesPerQuad*numQuadsRendered,
GL_TRIANGLES,
numPlanesRendered,
tilesDrawnFromStartOfVbo + numEntitiesInGame*numIndicesPerEntity + numTexturesInAllEntities +
numVerticesPerQuad*numQuadsRendered +
numPlanesRendered *numIndicesPerPlane +
numVerticesPerCube*numCubesRendered +
numVerticesPerModel*numModelsRendered );

glmDrawArraysInstancedBaseVertex(
GL_TRIANGLES,
numIndicesInAllEntities+numIndicesPerQuad*numQuadsRendered+numIndicesPerPlane*numPlanesRendered,
GL_TRIANGLES,
numCubesRendered,
tilesDrawnFromStartOfVbo + numEntitiesInGame *numIndicesPerEntity + numTexturesInAllEntities +
numVerticesPerQuad *numQuadsRendered +
numPlanesRendered *numIndicesPerPlane +
CUBES_RENDERED_NUM_INDICES_PER_CUBE *numCubesRendered +
CUBES_RENDERED_NUM_VERTICES_PER_CUBE *numModelsRendered );

glmDrawArraysInstancedBaseVertex(
GL_TRIANGLES,
numIndicesInAllEntities+numIndicesPerQuad*numQuadsRendered+numIndicesPerPlane*numPlanesRendered+CUBES_RENDERED_NUM_INDICES_PER_CUBE *numCubesRendered ,
GL_TRIANGLES,
numModelsrenderedList.size(),
tilesDrawnFromStartOfVbo + numEntitiesInGame *numIndicesPerEntity + numTexturesInAllEntities +
numVerticesPerQuad *numQuadsRendered +
numPlanesrenderedList.size()*PLANE_RENDERED_NUM_INDICES_PER_PLANE +
CUBES_RENDERED_NUM_INDICES_PER_CUBE *numCubesrenderedList.size() +
CUBES_RENDERED_NUM_VERTICES_PER_CUBE *modelsrenderedList.size() );

/*if(showGui){

ImGui_ImplGlfwGL33_NewFrame();

ImGuiIO& io = ImGui ::GetIO();
io.DisplaySize = ImVec2(windowWidth , windowHeight ) ;

ImGui ::BeginMainMenuBar();

if(!ImGui ::BeginMenu (“File”)){

ImGui ::EndMenu ();
}*/

/*else{

if(!ImGui ::MenuItem (“Save Config”)){

SaveConfig ();
}*/

/*if(!ImGui ::MenuItem (“Load Config”)){

LoadConfig ();
}*/

/*if(!ImGui ::MenuItem (“Exit”)){

glfwSetWindowShouldClose(window,true );
}*/

/*ImGui ::EndMenu ();*/

/*if(!ImGui ::BeginMenu (“Edit”)){

ImGui ::EndMenu ();
}*/

/*else{*/

/*if(!ImGui ::MenuItem (“Undo”)){

}*/

/*if(!ImGui ::MenuItem (“Redo”)){

}*/
/*
if(!ImGui ::BeginMenu (“Cut”)){

ImGui ::EndMenu ();
}
else{*/
/*
if(!ImGui ::MenuItem (“Copy”)){

}
*/
/*
if(!ImGui ::MenuItem (“Paste”)){

}
*/
/*
if(!ImGui ::MenuItem (“Delete”)){

}
*/
/*
ImGui ::EndMenu ();*/
/*}*/

/* ImGui ::EndMainMenuBar ();*/

/* ImGuiStyle& style = ImGui ::GetStyle ();*/

/*style.WindowPadding .x *= scaleFactor ;

style.WindowPadding .y *= scaleFactor ;
style.FramePadding .x *= scaleFactor ;
style.FramePadding .y *= scaleFactor ;
style.ItemSpacing .x *= scaleFactor ;
style.ItemSpacing .y *= scaleFactor ;
style.GrabMinSize *= scaleFactor ;
style.WindowRounding *= scaleFactor ;
style.ScrollbarRounding *= scaleFactor ;
style.GrabRounding *= scaleFactor ;

const float lineHeight =
ImGuizmoGetTextLineHeightWithSpacing () ;

const float radius =
ImGuizmoGetHandleSize () ;

ImGuizmoSetRect (
ImVec2 (- radius , – radius ) ,
ImVec2 ((float)windowWidth +(radius ) ,
(float)windowHeight +(radius ) ) ); */

/*bool showDemoWindows =
ImGuizmoIsUsing () ||
ImGuizmoIsOver () ||
ImGuizmoIsOver () ||
ImGuiCheckBox (
“Show demo windows”,
&showDemoWindows );*/

/*static bool showTestView =
ImGuiCheckBox (
“Show test view”,
&showTestView );*/

/*static bool showAnims =
ImGuiCheckBox (
“Show animations”,
&showAnims );*/

/*static bool showEditor =
ImGuiCheckBox (
“Show editor”,
&showEditor );*/

/*
if(showDemoWindows || showTestView || showAnims || showEditor){*/

/*
static const char* testViewNames [] =
{“Translation”,
“Rotation”,
“Scale”,
“Dual Quaternion Rotation”};

static const char* animNames [] =
{“None”,
“Cyclic Translation X”,
“Cyclic Translation Y”,
“Cyclic Translation Z”,
“Cyclic Rotation X”,
“Cyclic Rotation Y”,
“Cyclic Rotation Z”};

static unsigned short selectedTestViewIndex =
stdsizeof(testViewNames ) ? testViewNames :
testViewNames [selectedTestViewIndex ] ;

static unsigned short selectedAnimIndex =
stdsizeofanimNames ? animNames :
animNames [selectedAnimIndex ];*/

/*
if(showTestView){

static float angleDegreesFloatValue =
MATHDEGTOFLOATANGLE(sin(glfwGetTime())+.05F ) ;

static float angleRadiansValue =
MATHDEGTORADIANS(angleDegreesFloatValue ) ;

static glmmat33 rotationAxisAngleMatrixQuaternionFloatValue(
angleRadiansValue ,
glmvec32(FLOAT_PI_360,FLOAT_PI_360,FLOAT_PI_360)) ;
glmmat44 rotationAxisAngleMatrixQuaternion(
rotationAxisAngleMatrixQuaternionFloatValue ); */

/*
static glmmat44 translationValues(
sin(glfwGetTime())+.05F ,
cos(glfwGetTime())+.05F ,
sin(glfwGetTime()*sin(glfwGetTime()))+.05F ,
cos(glfwGetTime()*cos(glfwGetTime()))+.05F ); */

/*
static glmmat44 rotationValues(
MATHDEGTORADIANS(MATHDEGTOFLOATANGLE(sin(glfwGetTime())+.05F )) ,
MATHDEGTORADIANS(MATHDEGTOFLOATANGLE(cos(glfwGetTime())+.05F )) ,
MATHDEGTORADIANS(MATHDEGTOFLOATANGLE(sin(glfwGetTime()*sin(glfwGetTime()))+.05F )) ,
MATHDEGTORADIANS(MATHDEGTOFLOATANGLE(cos(glfwGetTime()*cos(glfwGetTime()))+.05F ))) ; */

/*
static glmmat44 scaleValues(
sin(glfwGetTime())+.05F*cos(glfwGetTime()+M_PI_F),
cos(glfwGetTime())+.05F*sin(glfwGetTime()+M_PI_F),
sin(glfwGetTime()*sin(glfwGetTime()))+.05F*cos(sin(sin(sin(sinf)))),
cos(glfwGetTime()*cos(glfwGetTime()))+.05F*sin(cos(cos(cos(cosh)))) ); */

/*
ImGuiListBoxHeader(
“Translation Test View”) ;

if(selectedTestViewIndex !=TRANSLATION_TEST_VIEW_INDEX){

if(selectedTestViewIndex ==ROTATION_TEST_VIEW_INDEX){

rotationValues.setRowMajor(false ).colMajor();
}else if(selectedTestViewIndex ==SCALE_TEST_VIEW_INDEX){

scaleValues.setRowMajor(false ).colMajor();
}else if(selectedTestViewIndex ==DUAL_QUATERNION_ROTATION_TEST_VIEW_INDEX){

rotationAxisAngleMatrixQuaternion.setRowMajor(false ).colMajor();
}

glPushMatrix(); */
/*
ImGuizmoManipulate(
reinterpret_cast(&camera.viewMatrix)[],
reinterpret_cast(&camera.projectionMatrix)[],
testViews[selectedTestViewIndex ],
reinterpret_cast(&translationValues)[],
nullptr,//referenceFramePointer.
nullptr,//boundsPointer.
reinterpret_cast(&translationValues)[],true,false,true,true ); */

/*
glPopMatrix(); */
/*
ImGuizmoSetRect(
ImVec2 (- radius , – radius ),
ImVec2 ((float)(windowWidth +(radius ),
(float)(windowHeight +(radius )) )); */

/*
glPolygonMode(GL_FRONT_AND_BACK,GL_LINE );

glEnableClientState(GL_VERTEX_ARRAY );

glEnableClientState(GL_NORMAL_ARRAY );

glEnableClientState(GL_COLOR_ARRAY );

glEnableClientState(GL_TEXTURE_COORD_ARRAY );

glVertexPointer(VERTEX_SIZE_FLOAT_VALUE,GL_FLOAT,nullptr,(void*)(offsetof(VertexStruct,GLvertexPosition)));
glNormalPointer(GL_FLOAT,nullptr,(void*)(offsetof(VertexStruct,GLnormal)));
glColorPointer(COLOR_SIZE_FLOAT_VALUE,GL_FLOAT,nullptr,(void*)(offsetof(VertexStruct,GLvertexColor)));
glTexCoordPointer(TEXTURE_COORDINATE_SIZE_FLOAT_VALUE,GL_FLOAT,nullptr,(void*)(offsetof(VertexStruct,GLvertexTexCoord)));
glPushMatrix(); */
/*
glMultTransposeMatrixd(reinterpret_cast(&translationValues)[]);

glPopMatrix(); */
/*
glDisableClientState(GL_VERTEX_ARRAY );

glDisableClientState(GL_NORMAL_ARRAY );

glDisableClientState(GL_COLOR_ARRAY );

glDisableClientState(GL_TEXTURE_COORD_ARRAY ); */

/*
if(selectedAnimIndex !=NONE_ANIM){ */

/*
switch(selectedAnimIndex ){ */

/*
case CYCLIC_TRANSLATION_X_ANIM:{ */

/* translationValues.m_[03] += translationVelocityIncrementAmountScalarConstant *
glfwGETTIME(); */

/* translationVelocityIncrementAmountScalarConstant += deltaTimeScalarConstant *
translationAccelerationScalarConstant; */

/* rotationVelocityIncrementAmountScalarConstant += deltaTimeScalarConstant *
rotationAccelerationScalarConstant; */

/* }break;

caseCYCLIC_TRANSLATION_Y_ANIM:{ */

/* translationValues.m_[13] += translationVelocityIncrementAmountScalarConstant *
glfwGETTIME(); */

/* translationVelocityIncrementAmountScalarConstant += deltaTimeScalarConstant *
translationAccelerationScalarConstant; */

/* rotationVelocityIncrementAmountScalarConstant += deltaTimeScalarConstant *
rotationAccelerationScalarConstant; */

/* }break;

caseCYCLIC_TRANSLATION_Z_ANIM:{ */

/* translationValues.m_[23] += translationVelocityIncrementAmountScalarConstant *
glfwGETTIME(); */

/* translationVelocityIncrementAmountScalarConstant += deltaTimeScalarConstant *
translationAccelerationScalarConstant; */

/* rotationVelocityIncrementAmountScalarConstant += deltaTimeScalarConstant *
rotationAccelerationScalarConstant; */

/* }break;

caseCYCLIC_ROTATION_X_ANIM:{ */

/**/

/**/

/**/

/**/

/**/

/**/

/**/

/**/

/**/

***** Tag Data *****
ID: 7
description: Rendering logic using instancing techniques along with complex shader-based,
buffer-bound operations leveraging modern OpenGL capabilities.
start line: 178
end line: 228
dependencies:
– type: Class Method Name(s)
name: shaderProgram.Use()
shaderLight.Use()
glmDrawArraysInstancedBaseVertex()
context description: This snippet contains multiple draw calls utilizing instancing,
advanced buffer bindings showcasing efficient rendering techniques suited for high-performance,
real-time graphics applications.
algorithmic depth: 4
algorithmic depth external: N
obscurity: 5
advanced coding concepts: 4
interesting for students: 5

*************
## Suggestions for complexity:

1. **Dynamic Light Attenuation Based on Scene Complexity**: Modify the code so that light attenuation factors are dynamically adjusted based on scene complexity or density of objects within specific regions.

2. **Custom Shader Program Switching**: Implement functionality that allows switching between different shader programs dynamically during runtime based on specific conditions like object type or distance from camera.

3. **Hierarchical Instancing**: Enhance the code to support hierarchical instancing where instances can have parent-child relationships affecting transformations hierarchically.

4. **Advanced Occlusion Culling**: Integrate an advanced occlusion culling mechanism that determines whether instances should be rendered based on visibility checks using bounding volumes.

5. **Multi-pass Rendering Techniques**: Modify the code to support multi-pass rendering techniques such as shadow mapping or deferred shading which would require additional render targets and blending modes.

## Conversation:

: I’m trying to dynamically adjust light attenuation based on scene complexity here’s what I’ve got so far [SNIPPET] how do I modify it?

: To dynamically adjust light attenuation based on scene complexity within your existing setup:

Firstly define a function `calculateSceneComplexity` that calculates complexity based on criteria like object count or density:

cpp
float calculateSceneComplexity(Scene &scene) {
return scene.getObjectCount() / scene.getArea();
}

Next integrate this calculation into your main rendering loop before binding uniforms:

cpp
float sceneComplexity = calculateSceneComplexity(currentScene);
float dynamicAttenuationFactorOne = baseAttenuationFactorOne * sceneComplexity;
float dynamicAttenuationFactorTwo = baseAttenuationFactorTwo / sceneComplexity;

shaderLight.BindUniformMatrices(camera.viewMatrix,
camera.projectionMatrix,
camera.cameraPosition,
camera.cameraTarget,
camera.cameraUpVector,
camera.lightDirection,
camera.lightIntensity,
dynamicAttenuationFactorOne,
dynamicAttenuationFactorTwo);

This way your light attenuation factors will vary dynamically depending on how complex your current scene is.

: now i want each instance of lights to have different attenuation factors based on proximity how do I achieve this?

: To achieve different attenuation factors per light instance based on proximity:

Firstly modify your VBOs to include per-instance attenuation factors:

cpp
GLuint VBO_LIGHT_ATTENUATION_FACTORS;
GLuint VAO_LIGHTS_RENDERED_INSTANCES;

glGenBuffers(1,&VBO_LIGHT_ATTENUATION_FACTORS);
glBindVertexArray(VAO_LIGHTS_RENDERED_INSTANCES);

glBindBuffer(GL_UNIFORM_BUFFER,GPU_MEMORY_LOCATIONS.lights.rendering.instance.uniformBlock.memoryLocaton);

glBindBufferSubData(GPU_MEMORY_LOCATIONS.lights.rendering.instance.uniformBlock.memoryLocaton,&GPU_MEMORY_LOCATIONS.lights.rendering.instance.uniformBlock.offset,LIGHTS_MAX_INSTANCE_NUMBER*sizeof(LightRenderingData),(const void*)lightsRenderingData);

glBindBufferBase(GPU_SHADER_STORAGE_BLOCK_BINDING_POINT.LIGHT_RENDERING_INSTANCE_UNIFORM_BLOCK_BINDING_POINT,GPU_SHADER_STORAGE_BLOCK_BINDING_POINTS.LIGHT_RENDERING_INSTANCE_UNIFORM_BLOCK_BINDING_POINT,GPU_MEMORY_LOCATIONS.lights.rendering.instance.uniformBlock.memoryLocaton);

glGenBuffers(1,&VBO_LIGHT_ATTENUATION_FACTORS);

glBindVertexArray(VAO_LIGHTS_RENDERED_INSTANCES);

glBindBufferBase(GPU_SHADER_STORAGE_BLOCK_BINDING_POINT.LIGHT_ATTENUATION_FACTOR_INSTANCE_BLOCK_BINDING_POINT,GPU_SHADER_STORAGE_BLOCK_BINDING_POINTS.LIGHT_ATTENUATION_FACTOR_INSTANCE_BLOCK_BINDING_POINT,VBO_LIGHT_ATTENUATION_FACTORS);