freegemas-gdx | Freegemas libGDX is an Android and Java desktop port | Game Engine library

using UnityEngine;
#if ENABLE_INPUT_SYSTEM && STARTER_ASSETS_PACKAGES_CHECKED
using UnityEngine.InputSystem;
#endif

namespace StarterAssets
{
    public class StarterAssetsInputs : MonoBehaviour
    {
        [Header("Character Input Values")]
        public Vector2 move;
        public Vector2 look;
        public bool jump;
        public bool sprint;

        [Header("Movement Settings")]
        public bool analogMovement;

#if !UNITY_IOS || !UNITY_ANDROID
        [Header("Mouse Cursor Settings")]
        public bool cursorLocked = true;
        public bool cursorInputForLook = true;
#endif

#if ENABLE_INPUT_SYSTEM && STARTER_ASSETS_PACKAGES_CHECKED
        public void OnMove(InputValue value)
        {
            MoveInput(value.Get<Vector2>());
        }

        public void OnLook(InputValue value)
        {
            if(cursorInputForLook)
            {
                LookInput(value.Get<Vector2>());
            }
        }

        public void OnJump(InputValue value)
        {
            JumpInput(value.isPressed);
        }

        public void OnSprint(InputValue value)
        {
            SprintInput(value.isPressed);
        }
#else
    // old input sys if we do decide to have it (most likely wont)...
#endif


        public void MoveInput(Vector2 newMoveDirection)
        {
            move = newMoveDirection;
            Debug.Log(move.magnitude);
            Debug.Log(move.normalized.magnitude);
        } 

        public void LookInput(Vector2 newLookDirection)
        {
            look = newLookDirection;
        }

        public void JumpInput(bool newJumpState)
        {
            jump = newJumpState;
        }

        public void SprintInput(bool newSprintState)
        {
            sprint = newSprintState;
        }

#if !UNITY_IOS || !UNITY_ANDROID

        private void OnApplicationFocus(bool hasFocus)
        {
            SetCursorState(cursorLocked);
        }

        private void SetCursorState(bool newState)
        {
            Cursor.lockState = newState ? CursorLockMode.Locked : CursorLockMode.None;
        }

#endif

    }
    
}

using UnityEngine;
#if ENABLE_INPUT_SYSTEM && STARTER_ASSETS_PACKAGES_CHECKED
using UnityEngine.InputSystem;
#endif

/* Note: animations are called via the controller for both the character and capsule using animator null checks
 */

namespace StarterAssets
{
    [RequireComponent(typeof(CharacterController))]
#if ENABLE_INPUT_SYSTEM && STARTER_ASSETS_PACKAGES_CHECKED
    [RequireComponent(typeof(PlayerInput))]
#endif
    public class ThirdPersonController : MonoBehaviour
    {
        [Header("Player")]
        [Tooltip("Move speed of the character in m/s")]
        public float MoveSpeed = 2.0f;
        [Tooltip("Sprint speed of the character in m/s")]
        public float SprintSpeed = 5.335f;
        [Tooltip("How fast the character turns to face movement direction")]
        [Range(0.0f, 0.3f)]
        public float RotationSmoothTime = 0.12f;
        [Tooltip("Acceleration and deceleration")]
        public float SpeedChangeRate = 10.0f;

        [Space(10)]
        [Tooltip("The height the player can jump")]
        public float JumpHeight = 1.2f;
        [Tooltip("The character uses its own gravity value. The engine default is -9.81f")]
        public float Gravity = -15.0f;

        [Space(10)]
        [Tooltip("Time required to pass before being able to jump again. Set to 0f to instantly jump again")]
        public float JumpTimeout = 0.50f;
        [Tooltip("Time required to pass before entering the fall state. Useful for walking down stairs")]
        public float FallTimeout = 0.15f;

        [Header("Player Grounded")]
        [Tooltip("If the character is grounded or not. Not part of the CharacterController built in grounded check")]
        public bool Grounded = true;
        [Tooltip("Useful for rough ground")]
        public float GroundedOffset = -0.14f;
        [Tooltip("The radius of the grounded check. Should match the radius of the CharacterController")]
        public float GroundedRadius = 0.28f;
        [Tooltip("What layers the character uses as ground")]
        public LayerMask GroundLayers;

        [Header("Cinemachine")]
        [Tooltip("The follow target set in the Cinemachine Virtual Camera that the camera will follow")]
        public GameObject CinemachineCameraTarget;
        [Tooltip("How far in degrees can you move the camera up")]
        public float TopClamp = 70.0f;
        [Tooltip("How far in degrees can you move the camera down")]
        public float BottomClamp = -30.0f;
        [Tooltip("Additional degress to override the camera. Useful for fine tuning camera position when locked")]
        public float CameraAngleOverride = 0.0f;
        [Tooltip("For locking the camera position on all axis")]
        public bool LockCameraPosition = false;

        // cinemachine
        private float _cinemachineTargetYaw;
        private float _cinemachineTargetPitch;

        // player
        private float _speed;
        private float _animationBlend;
        private float _targetRotation = 0.0f;
        private float _rotationVelocity;
        private float _verticalVelocity;
        private float _terminalVelocity = 53.0f;

        // timeout deltatime
        private float _jumpTimeoutDelta;
        private float _fallTimeoutDelta;

        // animation IDs
        private int _animIDSpeed;
        private int _animIDGrounded;
        private int _animIDJump;
        private int _animIDFreeFall;
        private int _animIDMotionSpeed;

        private Animator _animator;
        private CharacterController _controller;
        private StarterAssetsInputs _input;
        private GameObject _mainCamera;

        private const float _threshold = 0.01f;

        private bool _hasAnimator;

        private void Awake()
        {
            // get a reference to our main camera
            if (_mainCamera == null)
            {
                _mainCamera = GameObject.FindGameObjectWithTag("MainCamera");
            }
        }

        private void Start()
        {
            _hasAnimator = TryGetComponent(out _animator);
            _controller = GetComponent<CharacterController>();
            _input = GetComponent<StarterAssetsInputs>();

            AssignAnimationIDs();

            // reset our timeouts on start
            _jumpTimeoutDelta = JumpTimeout;
            _fallTimeoutDelta = FallTimeout;
        }

        private void Update()
        {
            _hasAnimator = TryGetComponent(out _animator);
            
            JumpAndGravity();
            GroundedCheck();
            Move();
        }

        private void LateUpdate()
        {
            CameraRotation();
        }

        private void AssignAnimationIDs()
        {
            _animIDSpeed = Animator.StringToHash("Speed");
            _animIDGrounded = Animator.StringToHash("Grounded");
            _animIDJump = Animator.StringToHash("Jump");
            _animIDFreeFall = Animator.StringToHash("FreeFall");
            _animIDMotionSpeed = Animator.StringToHash("MotionSpeed");
        }

        private void GroundedCheck()
        {
            // set sphere position, with offset
            Vector3 spherePosition = new Vector3(transform.position.x, transform.position.y - GroundedOffset, transform.position.z);
            Grounded = Physics.CheckSphere(spherePosition, GroundedRadius, GroundLayers, QueryTriggerInteraction.Ignore);

            // update animator if using character
            if (_hasAnimator)
            {
                _animator.SetBool(_animIDGrounded, Grounded);
            }
        }

        private void CameraRotation()
        {
            // if there is an input and camera position is not fixed
            if (_input.look.sqrMagnitude >= _threshold && !LockCameraPosition)
            {
                _cinemachineTargetYaw += _input.look.x * Time.deltaTime;
                _cinemachineTargetPitch += _input.look.y * Time.deltaTime;
            }

            // clamp our rotations so our values are limited 360 degrees
            _cinemachineTargetYaw = ClampAngle(_cinemachineTargetYaw, float.MinValue, float.MaxValue);
            _cinemachineTargetPitch = ClampAngle(_cinemachineTargetPitch, BottomClamp, TopClamp);

            // Cinemachine will follow this target
            CinemachineCameraTarget.transform.rotation = Quaternion.Euler(_cinemachineTargetPitch + CameraAngleOverride, _cinemachineTargetYaw, 0.0f);
        }

        private void Move()
        {
            // set target speed based on move speed, sprint speed and if sprint is pressed
            float targetSpeed = _input.sprint ? SprintSpeed : MoveSpeed;

            // a simplistic acceleration and deceleration designed to be easy to remove, replace, or iterate upon

            // note: Vector2's == operator uses approximation so is not floating point error prone, and is cheaper than magnitude
            // if there is no input, set the target speed to 0
            if (_input.move == Vector2.zero) targetSpeed = 0.0f;

            // a reference to the players current horizontal velocity
            float currentHorizontalSpeed = new Vector3(_controller.velocity.x, 0.0f, _controller.velocity.z).magnitude;

            float speedOffset = 0.1f;
            float inputMagnitude = _input.analogMovement ? _input.move.magnitude : 1f;

            // accelerate or decelerate to target speed
            if (currentHorizontalSpeed < targetSpeed - speedOffset || currentHorizontalSpeed > targetSpeed + speedOffset)
            {
                // creates curved result rather than a linear one giving a more organic speed change
                // note T in Lerp is clamped, so we don't need to clamp our speed
                _speed = Mathf.Lerp(currentHorizontalSpeed, targetSpeed * inputMagnitude, Time.deltaTime * SpeedChangeRate);

                // round speed to 3 decimal places
                _speed = Mathf.Round(_speed * 1000f) / 1000f;
            }
            else
            {
                _speed = targetSpeed;
            }
            _animationBlend = Mathf.Lerp(_animationBlend, targetSpeed, Time.deltaTime * SpeedChangeRate);

            // normalise input direction
            Vector3 inputDirection = new Vector3(_input.move.x, 0.0f, _input.move.y).normalized;

            // note: Vector2's != operator uses approximation so is not floating point error prone, and is cheaper than magnitude
            // if there is a move input rotate player when the player is moving
            if (_input.move != Vector2.zero)
            {
                _targetRotation = Mathf.Atan2(inputDirection.x, inputDirection.z) * Mathf.Rad2Deg + _mainCamera.transform.eulerAngles.y;
                float rotation = Mathf.SmoothDampAngle(transform.eulerAngles.y, _targetRotation, ref _rotationVelocity, RotationSmoothTime);

                // rotate to face input direction relative to camera position
                transform.rotation = Quaternion.Euler(0.0f, rotation, 0.0f);
            }


            Vector3 targetDirection = Quaternion.Euler(0.0f, _targetRotation, 0.0f) * Vector3.forward;

            // move the player
            _controller.Move(targetDirection.normalized * (_speed * Time.deltaTime) + new Vector3(0.0f, _verticalVelocity, 0.0f) * Time.deltaTime);

            // update animator if using character
            if (_hasAnimator)
            {
                _animator.SetFloat(_animIDSpeed, _animationBlend);
                _animator.SetFloat(_animIDMotionSpeed, inputMagnitude);
            }
        }

        private void JumpAndGravity()
        {
            if (Grounded)
            {
                // reset the fall timeout timer
                _fallTimeoutDelta = FallTimeout;

                // update animator if using character
                if (_hasAnimator)
                {
                    _animator.SetBool(_animIDJump, false);
                    _animator.SetBool(_animIDFreeFall, false);
                }

                // stop our velocity dropping infinitely when grounded
                if (_verticalVelocity < 0.0f)
                {
                    _verticalVelocity = -2f;
                }

                // Jump
                if (_input.jump && _jumpTimeoutDelta <= 0.0f)
                {
                    // the square root of H * -2 * G = how much velocity needed to reach desired height
                    _verticalVelocity = Mathf.Sqrt(JumpHeight * -2f * Gravity);

                    // update animator if using character
                    if (_hasAnimator)
                    {
                        _animator.SetBool(_animIDJump, true);
                    }
                }

                // jump timeout
                if (_jumpTimeoutDelta >= 0.0f)
                {
                    _jumpTimeoutDelta -= Time.deltaTime;
                }
            }
            else
            {
                // reset the jump timeout timer
                _jumpTimeoutDelta = JumpTimeout;

                // fall timeout
                if (_fallTimeoutDelta >= 0.0f)
                {
                    _fallTimeoutDelta -= Time.deltaTime;
                }
                else
                {
                    // update animator if using character
                    if (_hasAnimator)
                    {
                        _animator.SetBool(_animIDFreeFall, true);
                    }
                }

                // if we are not grounded, do not jump
                _input.jump = false;
            }

            // apply gravity over time if under terminal (multiply by delta time twice to linearly speed up over time)
            if (_verticalVelocity < _terminalVelocity)
            {
                _verticalVelocity += Gravity * Time.deltaTime;
            }
        }

        private static float ClampAngle(float lfAngle, float lfMin, float lfMax)
        {
            if (lfAngle < -360f) lfAngle += 360f;
            if (lfAngle > 360f) lfAngle -= 360f;
            return Mathf.Clamp(lfAngle, lfMin, lfMax);
        }

        private void OnDrawGizmosSelected()
        {
            Color transparentGreen = new Color(0.0f, 1.0f, 0.0f, 0.35f);
            Color transparentRed = new Color(1.0f, 0.0f, 0.0f, 0.35f);

            if (Grounded) Gizmos.color = transparentGreen;
            else Gizmos.color = transparentRed;
            
            // when selected, draw a gizmo in the position of, and matching radius of, the grounded collider
            Gizmos.DrawSphere(new Vector3(transform.position.x, transform.position.y - GroundedOffset, transform.position.z), GroundedRadius);
        }
    }
}

      using System;
using OpenTK.Mathematics;
using OpenTK.Windowing.Desktop;
using OpenTK.Windowing.Common;
using System.Drawing;
using OpenTK.Graphics.OpenGL4;
using System.IO;

namespace Game_Engine
{
    public static class Program
    {
        static void Main(string[] args)
        {
            Console.WriteLine("Hello World!");

            GameWindowSettings gws = GameWindowSettings.Default;
            NativeWindowSettings nws = NativeWindowSettings.Default;
            gws.IsMultiThreaded = false;
            gws.RenderFrequency = 60;
            gws.UpdateFrequency = 60;

            nws.APIVersion = Version.Parse("4.1.0");
            nws.AutoLoadBindings = true;
            nws.Size = new Vector2i(1280, 720);
            nws.Title = "Horizon";
            


            GameWindow window = new GameWindow(gws, nws);

            window.UpdateFrame += (FrameEventArgs args) => {

                
            };

            ShaderProgram shaderProgram = new ShaderProgram(){id = 0};
            window.Load += () =>
            {
                Console.WriteLine("Hello");
                ShaderProgram shaderProgram = LoadShaderProgram("../../../../vertex_shader.glsl", "../../../../fragment_shader.glsl");
            };

            window.RenderFrame += (FrameEventArgs args) =>
            {
                GL.UseProgram( shaderProgram.id );

                GL.ClearColor(1.0f, 0.0f, 0.0f, 0.0f);
                GL.Clear(ClearBufferMask.ColorBufferBit);

                float[] verts = { -0.5f, -0.5f, 0.0f, 0.5f, -0.5f, 0.0f, 0.0f, 0.5f, 0.0f };
                float[] color = { 1f, 0, 0, 0, 1f ,0 ,0, 0, 1f };

                int vao = GL.GenVertexArray();
                int vertices = GL.GenBuffer();
                int colors = GL.GenBuffer();
                GL.BindVertexArray(vao);
                GL.BindBuffer(BufferTarget.ArrayBuffer, vertices);
                GL.BufferData( BufferTarget.ArrayBuffer, verts.Length * sizeof(float), verts, BufferUsageHint.StaticCopy);
                GL.EnableVertexAttribArray( 0 );
                GL.VertexAttribPointer( 0, 3, VertexAttribPointerType.Float, false, 0, 0 );

                GL.BindBuffer(BufferTarget.ArrayBuffer, colors);
                GL.BufferData(BufferTarget.ArrayBuffer, color.Length * sizeof(float), color, BufferUsageHint.StaticCopy);
                GL.EnableVertexAttribArray(1);
                GL.VertexAttribPointer(1, 3, VertexAttribPointerType.Float, false, 0, 0);



                GL.DrawArrays(PrimitiveType.Triangles, 0, 3);

                GL.BindBuffer(BufferTarget.ArrayBuffer, 0);
                GL.BindVertexArray(0);
                GL.DeleteBuffer(vertices);
                GL.DeleteBuffer(colors);
                GL.DeleteVertexArray( vao );



                window.SwapBuffers();
            };

            window.Run();
            
        }



        private static Shader LoadShader(string shaderLocation, ShaderType type)
        {
            int shaderId = GL.CreateShader( type );
            GL.ShaderSource( shaderId, File.ReadAllText( shaderLocation ) );
            GL.CompileShader( shaderId );
            string infoLog = GL.GetShaderInfoLog( shaderId );
            if (!string.IsNullOrEmpty(infoLog))
            {
                throw new Exception(infoLog);
            }

            return new Shader() { id = shaderId };
        }

        private static ShaderProgram LoadShaderProgram( string vertextShaderLocation, string fragmentShaderLocation)
        {
            int shaderProgramId = GL.CreateProgram();

            Shader vertextShader = LoadShader(vertextShaderLocation, ShaderType.VertexShader);
            Shader fragmentShader = LoadShader(fragmentShaderLocation, ShaderType.FragmentShader);

            GL.AttachShader(shaderProgramId, vertextShader.id);
            GL.AttachShader(shaderProgramId, fragmentShader.id);
            GL.LinkProgram(shaderProgramId);
            GL.DetachShader(shaderProgramId, vertextShader.id);
            GL.DetachShader(shaderProgramId, fragmentShader.id);
            GL.DeleteShader(vertextShader.id);
            GL.DeleteShader(fragmentShader.id);

            string infoLog = GL.GetProgramInfoLog(shaderProgramId);
            if (!string.IsNullOrEmpty(infoLog))
            {
                throw new Exception(infoLog);
            }

            return new ShaderProgram() { id = shaderProgramId };
        }


        public struct Shader
        {
            public int id;
        }

        public struct ShaderProgram
        {
            public int id;
        }
    }
}

#version 400

in vec3 color_in;

out vec4 color_out;

void main(){
  color_out = vec4(color_in.r, color_in.g, color_in.b, 1);

}

#version 330


layout(location = 0) in vec3 vPosition;
layout(location = 1) in vec3 vColors;

out vec3 color_in;

void main() {
  color_in = vColors;
  gl_Position = vec4( vPosition, 1.0 );

}

 fn fps_camera(&mut self) -> beagle_math::Mat4 {
    let pitch_matrix = beagle_math::Mat4::rotate_x(self.pitch_in_radians);
    let yaw_matrix = beagle_math::Mat4::rotate_y(self.yaw_in_radians);

    let view_matrix = yaw_matrix.get_transposed().mul(&pitch_matrix.get_transposed());
    let translate_matrix = beagle_math::Mat4::translate(&self.position.mul(-1.0));

    translate_matrix.mul(&view_matrix)
}

 fn space_camera(&mut self) -> beagle_math::Mat4 {
    let previous_pitch_matrix = beagle_math::Mat4::rotate_x(self.previous_pitch);
    let previous_yaw_matrix = beagle_math::Mat4::rotate_y(self.previous_yaw);
    let previous_view_matrix = previous_yaw_matrix.get_transposed().mul(&previous_pitch_matrix.get_transposed());

    let pitch_matrix = beagle_math::Mat4::rotate_x(self.pitch_in_radians);
    let yaw_matrix = beagle_math::Mat4::rotate_y(self.yaw_in_radians);

    let view_matrix = yaw_matrix.get_transposed().mul(&pitch_matrix.get_transposed());
    let translate_matrix = beagle_math::Mat4::translate(&self.position.mul(-1.0));

    // SAVES
    self.previous_pitch += self.pitch_in_radians;
    self.previous_yaw += self.yaw_in_radians;

    // RESETS
    self.pitch_in_radians = 0.0;
    self.yaw_in_radians = 0.0;

    translate_matrix.mul(&(previous_view_matrix.mul(&view_matrix)))
}

Node copynode = new Node();

// Called when the node enters the scene tree for the first time.
public override void _Ready()
{
    copynode = this;
    for (int i = 0; i < 5; i++)
    {
        AddChild(copynode);         
    }

}

// Game.ts
import Entity from './Entity.js'
class Game {
  entities: List<Entity>;

  tick(dt: number) {
    entities.forEach(e => e.tick(dt));
    entities.forEach(e => e.draw());
  }
}

// Entity.ts
import Game from './Game.ts'
class Entity {
  game: Game;

  constructor(g: Game) {
    this.game = g;
  }

  tick(dt: number) {
    this.move(dt);
    this.collide(this.game);
  }
  draw() { /* snip */}
}

// game.h
#include "entity.h"
typedef struct Game {
  Entity *entities;
} Game;

// entity.h
#include "game.h"
typedef struct Entity Entity;

typedef void (*tick) (Entity*);

struct Entity {
  Game *game;
  char* name;
  int x, y;
  tick* t;
};

[ClientRpc]
public void spawnTime()
{
    StartCoroutine(spawn());
}
public IEnumerator spawn()
{
    Debug.Log("oldu");
    yield return new WaitForSeconds(1);
    int a = Random.Range(0, guns.Length);
    GameObject gun =Instantiate(guns[a], spawnPoint.position,Quaternion.identity);
    gun.transform.SetParent(transform);
    NetworkServer.Spawn(gun);
}

extends KinematicBody2D

var speed = 200
var velocity = Vector2(-0.5, 1)
var bullet_preload = preload("res://Enemy/EnemyBullet.tscn")

func _ready():
    randomize()
    velocity.y = [1, -1][randi() % 2]

func _physics_process(delta):
    var collision = move_and_collide(velocity * speed * delta)
    if collision:
        velocity = velocity.bounce(collision.normal)
    if position.x < -20:
        print("Enemy Despawned")
        queue_free()
    if $ShootDelay.time_left == 0:
        var bullet = bullet_preload.instance()
        bullet.position.x = position.x - 18
        bullet.position.y = position.y + 6
        get_parent().add_child(bullet)
        $ShootDelay.start()

extends Area2D

var speed = 600
var velocity = Vector2(1, 0)

func _process(delta):
    position.x += speed * delta
    if position.x > 1044:
        queue_free()

func _on_PlayerBullet_body_entered(body):
    queue_free()

    this.gr = this.add.graphics();

    this.gr.fillStyle(0xffffff, 0.3);

    this.gr.fillRoundedRect(32, 32, 100, 300, 32);

    this.gr.fillStyle(0xff00ff, 1);