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Commit c1967561 authored by Louis Soto's avatar Louis Soto
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levels

parent 7ee4792f
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Boid/game/game.go
View file @ c1967561
......@@ -18,7 +18,7 @@ import (
"golang.org/x/image/font"
boid "gitlab.utc.fr/projet_ia04/Boid/agent/boid"
predator "gitlab.utc.fr/projet_ia04/Boid/agent/predator"
"gitlab.utc.fr/projet_ia04/Boid/agent/predator"
wall "gitlab.utc.fr/projet_ia04/Boid/agent/wall"
flock "gitlab.utc.fr/projet_ia04/Boid/flock"
constant "gitlab.utc.fr/projet_ia04/Boid/utils/constant"
......@@ -29,37 +29,105 @@ import (
type Vector2D = vector.Vector2D
type Game struct {
Flock flock.Flock
// Inited bool
Flock flock.Flock
Sync chan string
musicInfo string
scoreFont font.Face
scores []Score
currentLevel int
levels []*Level
scores []*Score
currentScore Score
polygon []Vector2D
polygonReleased string
polygonSize float64
maxPolygonSize float64
initTime time.Time
timeOut int //entier corespondant au temps max de jeu (en minute)
}
func NewGame(c chan string) *Game {
func NewGame(c chan string, timeOut int) *Game {
g := &Game{}
g.Sync = c
g.initTime = time.Now()
g.timeOut = timeOut
//Création de niveaux:
g.levels = make([]*Level, 5)
// niveau très simple dans lequel les poisons sont amené à se regroupé et se stabilisé rapidement
g.levels[0] = NewLevel(10000, 10, 300, 100, 16+10, 1, 4.0, 1000)
// même typed de niveau que le 0, mais le regroupement prend plus de temps et la stabilité est moindre
// et le filet est plus petit
g.levels[1] = NewLevel(500, 100, 100, 75, 16+10, 2.0, 4.0, 700)
// on dimunie le facteur de repulsion entre espèce ainsi que celui de cohésion
// pour rendre plus dificile le fait de n'attrapper
// qu'une espèce
g.levels[2] = NewLevel(50, 100, 50, 75, 16+10, 2.0, 4.0, 700)
// on rajoute des mures/bombes: ce qui favorise le chaos et rend plus dificile la tâche
// d'attraper les poisson
g.levels[3] = NewLevel(50, 100, 50, 75, 16+10+2*48, 2.0, 4.0, 700)
//niveau impossible
g.levels[4] = NewLevel(0, 0, 0, 0, 16+10+2*48, 5.0, 8.0, 700)
go func() {
for {
// lorsque l'agent reçoit sur sa channel sync(bloquant): il reçoit une indication de la musique
g.musicInfo = <-g.Sync
// Il doit modifier un de ses paramêtres
}
}()
data, err := ioutil.ReadFile("Roboto-Black.ttf")
if err != nil {
fmt.Println(err)
}
ttf, err := truetype.Parse(data)
if err != nil {
fmt.Println(err)
}
op := truetype.Options{Size: 24, DPI: 72, Hinting: font.HintingFull}
g.scoreFont = truetype.NewFace(ttf, &op)
// Initialisation du jeu au niveau 0 (score = 0)
g.setGame(0, 0)
return g
}
func (g *Game) setGame(currentLevel int, initScore int) {
g.currentLevel = currentLevel
// Initialisation des variables vis à vis du niveau en cours:
variable.RepulsionFactorBtwnSpecies = g.levels[g.currentLevel].RepulsionFactorBtwnSpecies
variable.SeparationPerception = g.levels[g.currentLevel].SeparationPerception
variable.CohesionPerception = g.levels[g.currentLevel].CohesionPerception
variable.AlignPerception = g.levels[g.currentLevel].AlignPerception
variable.NumWall = g.levels[g.currentLevel].numWall
variable.MaxForce = g.levels[g.currentLevel].MaxForce
variable.MaxSpeed = g.levels[g.currentLevel].MaxSpeed
//Initialisation du score au niveau courant
g.currentScore = *NewScore(g.currentLevel, initScore, 1)
// Initialisation du filet(polygon)
g.polygonReleased = "non"
g.maxPolygonSize = 700.0
g.maxPolygonSize = g.levels[g.currentLevel].polygonSize
// Initialisation des agents:
rand.Seed(time.Hour.Milliseconds())
g.Flock.Boids = make([]*boid.Boid, constant.NumBoids)
g.Flock.Walls = make([]*wall.Wall, constant.NumWalls)
g.Flock.Predators = make([]*predator.Predator, constant.NumPreda)
g.Flock.Walls = make([]*wall.Wall, variable.NumWall)
for i := range g.Flock.Boids {
w, h := variable.BirdImage.Size()
w, h := variable.FishImage1.Size()
x, y := rand.Float64()*float64(constant.ScreenWidth-w), rand.Float64()*float64(constant.ScreenWidth-h)
min, max := -constant.MaxForce, constant.MaxForce
min, max := -variable.MaxForce, variable.MaxForce
vx, vy := rand.Float64()*(max-min)+min, rand.Float64()*(max-min)+min
s := rand.Intn(constant.NumSpecies)
g.Flock.Boids[i] = &boid.Boid{
......@@ -72,19 +140,10 @@ func NewGame(c chan string) *Game {
Dead: false,
}
}
for i := range g.Flock.Walls {
w, h := variable.WallImage.Size()
x, y := rand.Float64()*float64(constant.ScreenWidth-w+1000), rand.Float64()*float64(constant.ScreenWidth-h)
g.Flock.Walls[i] = &wall.Wall{
ImageWidth: w,
ImageHeight: h,
Position: Vector2D{X: x, Y: y},
}
}
for i := range g.Flock.Predators {
w, h := variable.BirdImage.Size()
x, y := rand.Float64()*float64(constant.ScreenWidth-w), rand.Float64()*float64(constant.ScreenWidth-h)
min, max := -constant.MaxForce, constant.MaxForce
min, max := -variable.MaxForce, variable.MaxForce
vx, vy := rand.Float64()*(max-min)+min, rand.Float64()*(max-min)+min
g.Flock.Predators[i] = &predator.Predator{
ImageWidth: w,
......@@ -100,59 +159,66 @@ func NewGame(c chan string) *Game {
R: false,
}
}
// Variable Initialisations
variable.RepulsionFactorBtwnSpecies = 100
variable.SeparationPerception = 50
variable.CohesionPerception = 300
go func() {
for {
// lorsque l'agent reçoit sur sa channel sync(bloquant): il reçoit une indication de la musique
g.musicInfo = <-g.Sync
// Il doit modifier un de ses paramêtre
}
}()
data, err := ioutil.ReadFile("Roboto-Black.ttf")
if err != nil {
fmt.Println(err)
}
ttf, err := truetype.Parse(data)
if err != nil {
fmt.Println(err)
// Mise en place des murs/bombe en fonction du niveau
wallIndex := 0
//bombe oeil droit:
wallIndex = g.eyeWallBomb(constant.ScreenWidth*0.35, constant.ScreenHeight*0.5, wallIndex)
// bombe bouche
wallIndex = g.mouthWallBomb(constant.ScreenWidth*0.25, constant.ScreenHeight*0.55, wallIndex)
//bombe oeil gauche:
wallIndex = g.eyeWallBomb(constant.ScreenWidth*0.25, constant.ScreenHeight*0.5, wallIndex)
if g.currentLevel > 2 {
//Toit de Bombe:
wallIndex = g.sideWallBomb(true, wallIndex)
//Sol de Bombe:
g.sideWallBomb(false, wallIndex)
}
op := truetype.Options{Size: 24, DPI: 72, Hinting: font.HintingFull}
g.scoreFont = truetype.NewFace(ttf, &op)
//Init scoring
g.currentScore = *NewScore(1, 1)
return g
// Positionement des murs aléatoire: on garde au cas où...
// for i := range g.Flock.Walls {
// w, h := variable.WallImage.Size()
// x, y := rand.Float64()*float64(constant.ScreenWidth-w+1000), rand.Float64()*float64(constant.ScreenWidth-h)
// g.Flock.Walls[i] = &wall.Wall{
// ImageWidth: w,
// ImageHeight: h,
// Position: Vector2D{X: x, Y: y},
// }
// }
}
func (g *Game) Update() error {
// L'agent musique perturbe les agents boids afin de rendre le jeu plus complexe
if g.musicInfo == "very hard drop" {
variable.RepulsionFactorBtwnSpecies = 500
variable.SeparationPerception = 250
variable.CohesionPerception = 100
variable.RepulsionFactorBtwnSpecies = 1000
variable.SeparationPerception = 500
variable.CohesionPerception = 10
} else if g.musicInfo == "hard drop" {
variable.RepulsionFactorBtwnSpecies = 400
variable.SeparationPerception = 200
variable.CohesionPerception = 150
variable.RepulsionFactorBtwnSpecies = 800
variable.SeparationPerception = 500
variable.CohesionPerception = 100
} else if g.musicInfo == "medium drop" {
variable.RepulsionFactorBtwnSpecies = 300
variable.SeparationPerception = 150
variable.RepulsionFactorBtwnSpecies = 500
variable.SeparationPerception = 250
variable.CohesionPerception = 200
} else if g.musicInfo == "small drop" {
variable.RepulsionFactorBtwnSpecies = 200
variable.SeparationPerception = 100
variable.CohesionPerception = 250
} else {
variable.RepulsionFactorBtwnSpecies = 100
variable.SeparationPerception = 50
variable.CohesionPerception = 300
} else if g.musicInfo == "1" { // raccourcis secret
g.setGame(0, 0)
} else if g.musicInfo == "2" {
g.setGame(1, 0)
} else if g.musicInfo == "3" {
g.setGame(2, 0)
} else if g.musicInfo == "4" {
g.setGame(3, 0)
} else if g.musicInfo == "5" {
g.setGame(4, 0)
} else { // g.musicInfo = "R"
variable.RepulsionFactorBtwnSpecies = g.levels[g.currentLevel].RepulsionFactorBtwnSpecies
variable.SeparationPerception = g.levels[g.currentLevel].SeparationPerception
variable.CohesionPerception = g.levels[g.currentLevel].CohesionPerception
}
g.Flock.Logic()
......@@ -171,10 +237,12 @@ func (g *Game) Update() error {
}
if g.polygonReleased == "pret" {
for i := 0; i < len(g.Flock.Boids); i++ {
if g.Flock.Boids[i].Dead == false && IsPointInPolygon(g.Flock.Boids[i].Position, g.polygon) {
g.Flock.Boids[i].Dead = true
g.currentScore.AddCollectedFish(g.Flock.Boids[i].Species)
if g.polygonSize < g.maxPolygonSize {
for i := 0; i < len(g.Flock.Boids); i++ {
if !g.Flock.Boids[i].Dead && IsPointInPolygon(g.Flock.Boids[i].Position, g.polygon) {
g.Flock.Boids[i].Dead = true
g.currentScore.AddCollectedFish(g.Flock.Boids[i].Species)
}
}
}
g.polygonReleased = "non" //reset polygon
......@@ -187,21 +255,14 @@ func (g *Game) Update() error {
func (g *Game) Draw(screen *ebiten.Image) {
op := ebiten.DrawImageOptions{}
screen.DrawImage(variable.BackgroundImage, &op)
w, h := variable.BirdImage.Size()
w, h := variable.FishImage1.Size()
for _, boid := range g.Flock.Boids {
if boid.Dead == false {
if !boid.Dead {
op.GeoM.Reset()
op.GeoM.Translate(-float64(w)/2, -float64(h)/2)
op.GeoM.Rotate(-1*math.Atan2(boid.Velocity.Y*-1, boid.Velocity.X) + math.Pi)
op.GeoM.Translate(boid.Position.X, boid.Position.Y)
// A la base les images sont des chevrons, mais il m'est impossible de changer proprement leur
// couleur en fonction de leur espèce avec r,g,b et op.ColorM.Scale(r, g, b, 1):
// l'idée est donc de leur donner l'apparence de rectangles colorés que je peux remplir selon une couleur
// donnée
// r := 0.0
// g := 0.0
// b := 0.0
if boid.Species == 0 {
screen.DrawImage(variable.FishImage1, &op)
} else if boid.Species == 1 {
......@@ -211,7 +272,6 @@ func (g *Game) Draw(screen *ebiten.Image) {
}
}
}
for _, preda := range g.Flock.Predators {
op.GeoM.Reset()
op.GeoM.Translate(-float64(w)/2, -float64(h)/2)
......@@ -230,13 +290,13 @@ func (g *Game) Draw(screen *ebiten.Image) {
op.GeoM.Translate(preda.V1.X, preda.V1.Y)
screen.DrawImage(variable.BirdImage, &op)
}
w, h = variable.WallImage.Size()
for _, wall := range g.Flock.Walls {
op.GeoM.Reset()
op.GeoM.Translate(-float64(w)/2, -float64(h)/2)
// op.GeoM.Rotate(math.Pi / 2)
op.GeoM.Translate(wall.Position.X, wall.Position.Y)
variable.WallImage.Fill(color.Black)
screen.DrawImage(variable.WallImage, &op)
}
......@@ -250,7 +310,16 @@ func (g *Game) Draw(screen *ebiten.Image) {
text.Draw(screen, "Your lasso is too big!", g.scoreFont, constant.ScreenWidth/2-100, constant.ScreenHeight/2-32, color.RGBA{255, 12, 26, 255})
}
if g.IsGameOver() == true {
if g.nextLevel() {
if g.currentLevel+1 == len(g.levels) {
text.Draw(screen, "Well Done, you won with the score: "+strconv.Itoa(g.currentScore.Value), g.scoreFont, constant.ScreenWidth/2-50, constant.ScreenHeight/2+132, color.RGBA{53, 223, 26, 255})
} else {
g.scores = append(g.scores, &g.currentScore)
g.setGame(g.currentLevel+1, g.currentScore.Value)
}
}
if g.IsGameOver() {
text.Draw(screen, "Game over", g.scoreFont, constant.ScreenWidth/2-50, constant.ScreenHeight/2+132, color.RGBA{53, 223, 26, 255})
}
......@@ -283,20 +352,19 @@ func IsPointInPolygon(p Vector2D, polygon []Vector2D) bool {
if p.X < minX || p.X > maxX || p.Y < minY || p.Y > maxY {
return false
}
inside := false
i := 0
j := len(polygon) - 1
for i < len(polygon) {
if (polygon[i].Y > p.Y) != (polygon[j].Y > p.Y) && p.X < (polygon[j].X-polygon[i].X)*(p.Y-polygon[i].Y)/(polygon[j].Y-polygon[i].Y)+polygon[i].X {
inside = !inside
}
i++
j = i
}
return inside
return true
// pour simplifier supprimer code qui suit (sinon le filet fonctionne mal)
// inside := false
// i := 0
// j := len(polygon) - 1
// for i < len(polygon) {
// if (polygon[i].Y > p.Y) != (polygon[j].Y > p.Y) && p.X < (polygon[j].X-polygon[i].X)*(p.Y-polygon[i].Y)/(polygon[j].Y-polygon[i].Y)+polygon[i].X {
// inside = !inside
// }
// i++
// j = i
// }
// return inside
}
func GetPolygonSize(polygon []Vector2D) float64 {
......@@ -316,11 +384,138 @@ func GetPolygonSize(polygon []Vector2D) float64 {
return sumDistance + math.Sqrt((p0.X-pn.X)*(p0.X-pn.X)+(p0.Y-pn.Y)*(p0.Y-pn.Y))
}
func (g *Game) IsGameOver() bool {
func (g *Game) nextLevel() bool {
for i := 0; i < len(g.Flock.Boids); i++ {
if g.Flock.Boids[i].Dead == false && g.currentScore.RequiredFishType == g.Flock.Boids[i].Species {
if !g.Flock.Boids[i].Dead && g.currentScore.RequiredFishType == g.Flock.Boids[i].Species {
return false
}
}
return true
}
func (g *Game) IsGameOver() bool {
now := time.Now()
return now.Sub(g.initTime) > time.Duration(g.timeOut)*time.Minute
}
func (g *Game) mouthWallBomb(xPos float64, yPos float64, currentWallIndex int) int {
w, h := variable.WallImage.Size()
wallIndex := currentWallIndex
changeInc := -1
inc, subInc := 0, 0
for b := 0; b < 10; b++ {
x := xPos + float64(b*w)
if inc == 4 && changeInc == -1 {
changeInc = 0
}
if subInc == 3 && changeInc != 1 {
changeInc = 1
inc = 4
}
if changeInc == -1 {
inc++
} else if changeInc == 1 {
inc--
} else {
subInc++
}
y := yPos + float64(inc*h)
g.Flock.Walls[wallIndex] = &wall.Wall{
ImageWidth: w,
ImageHeight: h,
Position: Vector2D{X: x, Y: y},
}
wallIndex++
}
return wallIndex
}
func (g *Game) eyeWallBomb(xPos float64, yPos float64, currentWallIndex int) int {
w, h := variable.WallImage.Size()
wallIndex := currentWallIndex
changeInc := false
inc := 1
for b := 0; b < 5; b++ {
x := xPos + float64(b*w)
if b%3 == 0 {
changeInc = true
}
if inc == 1 {
changeInc = false
}
if changeInc {
inc--
} else {
inc++
}
y := yPos - float64(inc*h)
g.Flock.Walls[wallIndex] = &wall.Wall{
ImageWidth: w,
ImageHeight: h,
Position: Vector2D{X: x, Y: y},
}
wallIndex++
}
changeInc = false
inc = 2
for b := 0; b < 3; b++ {
x := xPos + float64((b+1)*w)
if b%2 == 0 {
changeInc = true
}
if inc == 1 {
changeInc = false
}
if changeInc {
inc--
} else {
inc++
}
y := yPos + float64((inc-2)*h)
g.Flock.Walls[wallIndex] = &wall.Wall{
ImageWidth: w,
ImageHeight: h,
Position: Vector2D{X: x, Y: y},
}
wallIndex++
}
return wallIndex
}
func (g *Game) sideWallBomb(top bool, currentWallIndex int) int {
w, h := variable.WallImage.Size()
wallIndex := currentWallIndex
//pour le mur du bas:
changeInc := true
inc := 4
//pour le mur du haut
if top {
changeInc = false
inc = 1
}
for b := 0; b < 48; b++ {
x := b*w + 10
if b%4 == 0 {
changeInc = true
}
if inc == 1 {
changeInc = false
}
if changeInc {
inc--
} else {
inc++
}
y := -inc*h + constant.ScreenHeight
if top {
y = inc * h
}
g.Flock.Walls[wallIndex] = &wall.Wall{
ImageWidth: w,
ImageHeight: h,
Position: Vector2D{X: float64(x), Y: float64(y)},
}
wallIndex++
}
return wallIndex
}
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