Files
WebJelly-Rescue/include/entities/Player.h
T

267 lines
7.7 KiB
C++

#ifndef PLAYER_H
#define PLAYER_H
#include "raylib.h"
#include <unordered_map>
#include "services/AssetService.h"
#include "services/MapService.h"
#include "services/InputService.h"
#include "services/GameService.h"
#include "entities/TextureWrapper.h"
#include "enums/ECorner.h"
#include "entities/Vector2i.h"
class Player
{
public:
Player()
{
TextureWrapper wrapper = TextureWrapper(AssetService::getInstance().getSprite(ESprite::PLAYER), {32, 32}, {200, 200});
wrapper.setSourceRect({0, 0, 32, 32});
this->texture = wrapper;
prevFrame = GetTime();
spriteAnimation = {0,0};
}
~Player()
{
}
void logic()
{
// applyGravity();
movement();
// handleCollision();
outofboundsCheck();
}
void draw()
{
DrawTextureRec(this->texture.getTexture(), this->texture.getSourceRect(), this->texture.getPosition(), WHITE);
}
TextureWrapper &getTexture()
{
return this->texture;
}
protected:
private:
TextureWrapper texture;
Vector2 velocity = {0, 0};
float jumpPower = 7.2f;
float moveSpeed = 5.0f;
float gravity = 0.6f;
float animationDelay = 0.2f; // seconds
double prevFrame;
Vector2 spriteAnimation; // Keeps track of (1) Sprite cycling and (2) Player direction
enum Direction { Down, Left, Right, Up }; // Used in conjuction with spriteAnimation, makes sure sprite direction matches with player direction
std::vector <Vector2i> tiles; // Holds eight points of the player for accurate collision
std::vector<unsigned int> timesCollision; // Holds the amount of times the player has collided with a tile, and which corner of the player is touching a tile
bool groundCollision; // Keeps track of whether or not the player has collided with the ground
bool crateTopCollision;
/**
* Holds the corners of the player
* Is used for precise collision detection
*/
void applyGravity()
{
if (!groundCollision)
{
velocity.y += gravity;
}
else
{
// velocity.y = 0.0f;
}
}
void movement()
{
if (InputService::getInstance().isKeyDown(KEY_A))
{
spriteAnimation.y = Left;
velocity.x = -moveSpeed;
animate();
}
else if (InputService::getInstance().isKeyDown(KEY_D))
{
spriteAnimation.y = Right;
velocity.x = moveSpeed;
animate();
} else {
velocity.x = 0.0f;
}
positionUpdates();
handleCollision();
if (!groundCollision) {
velocity.y += gravity;
} else {
velocity.y = 0.0f;
}
if (InputService::getInstance().isKeyPressed(KEY_W) && groundCollision)
{
velocity.y -= jumpPower;
}
this->texture.move(velocity);
}
void animate()
{
if (GetTime() - prevFrame > animationDelay)
{
spriteAnimation.x = std::fmod(spriteAnimation.x + 1,3);
Rectangle sourceRect = this->texture.getSourceRect();
sourceRect.x = spriteAnimation.x * this->texture.getSize().x;
sourceRect.y = spriteAnimation.y * this->texture.getSize().y;
// sourceRect.x = std::fmod(sourceRect.x, 3 * this->texture.getSize().x);
this->texture.setSourceRect(sourceRect);
prevFrame = GetTime();
}
}
void positionUpdates() {
const Vector2 pos = this->texture.getPosition();
const Vector2 size = this->texture.getSize();
const int tileSize = MapService::getInstance().getMap().getTileSize();
const float bottom = pos.y + size.y + velocity.y;
const float left = pos.x + velocity.x;
const float right = pos.x + size.x + velocity.x;
const float top = pos.y + velocity.y;
Vector2i topLeft(Vector2i((int)(left + 5) / tileSize, (int)top / tileSize)); // +5 to separate top from side
Vector2i topRight(Vector2i((int)(right - 5) / tileSize, (int)top / tileSize)); // -5 to separate top from side
Vector2i leftTop(Vector2i((int)left / tileSize, (int)(top + 5) / tileSize));
Vector2i leftBottom(Vector2i((int)left / tileSize, (int)(bottom - 5) / tileSize));
Vector2i rightTop(Vector2i((int)right / tileSize, (int)(top + 5) / tileSize));
Vector2i rightBottom(Vector2i((int)right / tileSize, (int)(bottom - 5) / tileSize));
Vector2i bottomLeft(Vector2i((int)(left + 5) / tileSize, (int)bottom / tileSize)); // +5 to separate bottom from side
Vector2i bottomRight(Vector2i((int)(right - 5) / tileSize, (int)bottom / tileSize)); // -5 to separate bottom from side
tiles.clear();
tiles.push_back(topLeft);
tiles.push_back(topRight);
tiles.push_back(leftTop);
tiles.push_back(leftBottom);
tiles.push_back(rightTop);
tiles.push_back(rightBottom);
tiles.push_back(bottomLeft);
tiles.push_back(bottomRight);
}
/**
* Stores the current position
* Applies the current velocity
* Checks for collision, and removes all velocities that are causing collisions
* Set the object exactly against the object it is colliding with position
*/
void handleCollision()
{
timesCollision.clear();
for (int i = 0; i < tiles.size(); i++)
{
if (MapService::getInstance().getMap().getColMap()[tiles[i].y][tiles[i].x] == 1)
{
timesCollision.push_back(i);
}
}
groundCollision = false;
if (timesCollision.size() > 0)
{
for (int i = 0; i < timesCollision.size(); i++)
{
if (timesCollision[i] == 0 || timesCollision[i] == 1) //Topleft and Topright
{
velocity.y = 0;
}
else if (timesCollision[i] == 2 || timesCollision[i] == 3 || //Lefttop and Leftbottom
timesCollision[i] == 4 || timesCollision[i] == 5) //Righttop and Lefttop
{
velocity.x = 0;
}
else if (timesCollision[i] == 6 || timesCollision[i] == 7) //Bottomleft and Bottomright
{
groundCollision = true;
}
}
}
// Set velocity.x based on going right or left
// Take current position of all 4 corners
// Apply velocity
// Calculate the 8 points
// Add them to a list
// Empty vector of amount of collisions
// Loop through the points
// Check the collisionmap for intersection
// If so, add item to the vector of collisions
// Set groundcollision to false
// Loop through collisions
// Based on their location (TopLeft, RightTop, etc) change the velocity
// Apply gravity if not on the floor
// If jumping and on the floor, go up
// Move using velocity
// Vector2 tempPos = this->texture.getPosition();
// this->texture.move(velocity);
// groundCollision = false;
// std::unordered_map<ECorner, bool> collisions = MapService::getInstance().getMap().checkForCollision(this->texture);
// if (collisions[ECorner::BOTTOM_LEFT] || collisions[ECorner::BOTTOM_RIGHT])
// {
// velocity.y = 0.0f;
// groundCollision = true;
// this->texture.setPosition({this->texture.getPosition().x, floorf(this->texture.getPosition().y / MapService::getInstance().getMap().getTileSize()) * MapService::getInstance().getMap().getTileSize()});
// }
// if (collisions[ECorner::LEFT_TOP] && collisions[ECorner::LEFT_BOTTOM])
// {
// velocity.x = 0.0f;
// this->texture.setPosition({ceilf(this->texture.getPosition().x / MapService::getInstance().getMap().getTileSize()) * MapService::getInstance().getMap().getTileSize(), this->texture.getPosition().y});
// }
// if (collisions[ECorner::TOP_LEFT] || collisions[ECorner::TOP_RIGHT])
// {
// velocity.y = 0.0f;
// this->texture.setPosition({this->texture.getPosition().x, (ceilf(this->texture.getPosition().y / MapService::getInstance().getMap().getTileSize())) * MapService::getInstance().getMap().getTileSize()});
// }
// if (collisions[ECorner::RIGHT_TOP] && collisions[ECorner::RIGHT_BOTTOM])
// {
// velocity.x = 0.0f;
// this->texture.setPosition({floorf(this->texture.getPosition().x / MapService::getInstance().getMap().getTileSize()) * MapService::getInstance().getMap().getTileSize(), this->texture.getPosition().y});
// }
}
void outofboundsCheck()
{
if (this->texture.getPosition().y > StateService::getInstance().getScreenSize().y)
{
GameService::getInstance().setGameOver(true);
AudioService::getInstance().setMusic(EMusic::GAME_OVER);
AudioService::getInstance().playMusic();
}
}
};
#endif