func RenderAdvanced(x, y, dx, dy, rot float64, flip bool) {
if textureList != 0 {
var run, op mathgl.Mat4
run.Identity()
op.Translation(float32(x), float32(y), 0)
run.Multiply(&op)
op.Translation(float32(dx/2), float32(dy/2), 0)
run.Multiply(&op)
op.RotationZ(float32(rot))
run.Multiply(&op)
if flip {
op.Translation(float32(-dx/2), float32(-dy/2), 0)
run.Multiply(&op)
op.Scaling(float32(dx), float32(dy), 1)
run.Multiply(&op)
} else {
op.Translation(float32(dx/2), float32(-dy/2), 0)
run.Multiply(&op)
op.Scaling(float32(-dx), float32(dy), 1)
run.Multiply(&op)
}
gl.PushMatrix()
gl.MultMatrixf(&run[0])
gl.Enable(gl.TEXTURE_2D)
gl.CallList(textureList)
gl.PopMatrix()
}
}
func drawPrep() {
gl.Disable(gl.DEPTH_TEST)
gl.Disable(gl.TEXTURE_2D)
gl.PolygonMode(gl.FRONT_AND_BACK, gl.FILL)
gl.Enable(gl.BLEND)
gl.BlendFunc(gl.SRC_ALPHA, gl.ONE_MINUS_SRC_ALPHA)
gl.ClearStencil(0)
gl.Clear(gl.STENCIL_BUFFER_BIT)
}
func makeErrorTexture() {
gl.Enable(gl.TEXTURE_2D)
error_texture = gl.GenTexture()
error_texture.Bind(gl.TEXTURE_2D)
gl.TexEnvf(gl.TEXTURE_ENV, gl.TEXTURE_ENV_MODE, gl.MODULATE)
gl.TexParameterf(gl.TEXTURE_2D, gl.TEXTURE_MIN_FILTER, gl.LINEAR_MIPMAP_LINEAR)
gl.TexParameterf(gl.TEXTURE_2D, gl.TEXTURE_MAG_FILTER, gl.LINEAR)
gl.TexParameterf(gl.TEXTURE_2D, gl.TEXTURE_WRAP_S, gl.REPEAT)
gl.TexParameterf(gl.TEXTURE_2D, gl.TEXTURE_WRAP_T, gl.REPEAT)
transparent := []byte{0, 0, 0, 0}
glu.Build2DMipmaps(gl.TEXTURE_2D, 4, 1, 1, gl.RGBA, transparent)
}
func Render(x, y, dx, dy float64) {
var run, op mathgl.Mat4
run.Identity()
op.Translation(float32(x), float32(y), 0)
run.Multiply(&op)
op.Scaling(float32(dx), float32(dy), 1)
run.Multiply(&op)
gl.PushMatrix()
gl.Enable(gl.TEXTURE_2D)
gl.MultMatrixf(&run[0])
gl.CallList(textureList)
gl.PopMatrix()
}
func (rc *RosterChooser) Draw(r gui.Region) {
rc.Render_region = r
r.PushClipPlanes()
defer r.PopClipPlanes()
gl.Enable(gl.TEXTURE_2D)
{ // Up button
x := r.X
y := r.Y + r.Dy - rc.layout.Up.Data().Dy()
rc.render.up.X = x
rc.render.up.Y = y
rc.render.up.Dx = rc.layout.Up.Data().Dx()
rc.render.up.Dy = rc.layout.Up.Data().Dy()
if rc.mouse.Inside(rc.render.up) {
gl.Color4d(1, 1, 1, 1)
} else {
gl.Color4d(0.8, 0.8, 0.8, 1)
}
rc.layout.Up.Data().RenderNatural(x, y)
}
{ // Down button
x := r.X
y := r.Y + rc.layout.Down.Data().Dy()
rc.render.down.X = x
rc.render.down.Y = y
rc.render.down.Dx = rc.layout.Down.Data().Dx()
rc.render.down.Dy = rc.layout.Down.Data().Dy()
if rc.mouse.Inside(rc.render.down) {
gl.Color4d(1, 1, 1, 1)
} else {
gl.Color4d(0.8, 0.8, 0.8, 1)
}
rc.layout.Down.Data().RenderNatural(x, y)
}
{ // Options
rc.render.all_options.X = r.X + rc.layout.Down.Data().Dx()
rc.render.all_options.Y = r.Y + r.Dy - rc.layout.Num_options*rc.layout.Option.Dy
rc.render.all_options.Dx = rc.layout.Option.Dx
rc.render.all_options.Dy = rc.layout.Num_options * rc.layout.Option.Dy
rc.render.all_options.PushClipPlanes()
x := rc.render.all_options.X
y := r.Y + r.Dy - rc.layout.Option.Dy + int(float64(rc.layout.Option.Dy)*rc.focus_pos)
for i := range rc.options {
rc.render.options[i] = gui.Region{
gui.Point{x, y},
gui.Dims{rc.layout.Option.Dx, rc.layout.Option.Dy},
}
hovered := rc.mouse.Inside(rc.render.options[i])
selected := rc.selected[i]
selectable := rc.selector(i, rc.selected, false)
rc.options[i].Draw(hovered, selected, selectable, rc.render.options[i])
y -= rc.layout.Option.Dy
}
rc.render.all_options.PopClipPlanes()
}
{ // Text
d := base.GetDictionary(15)
x := r.X
y := float64(r.Y) + d.MaxHeight()/2
x1 := float64(x + r.Dx/3)
x2 := float64(x + (2*r.Dx)/3)
rc.render.done = gui.Region{
gui.Point{x, r.Y},
gui.Dims{r.Dx / 2, int(d.MaxHeight() * 2)},
}
rc.render.undo = gui.Region{
gui.Point{x + r.Dx/2, r.Y},
gui.Dims{r.Dx / 2, int(d.MaxHeight() * 2)},
}
if rc.mouse.Inside(rc.render.done) {
gl.Color4d(1, 1, 1, 1)
} else {
gl.Color4d(0.6, 0.6, 0.6, 1)
}
d.RenderString("Done", x1, y, 0, d.MaxHeight(), gui.Center)
if rc.on_undo != nil {
if rc.mouse.Inside(rc.render.undo) {
gl.Color4d(1, 1, 1, 1)
} else {
gl.Color4d(0.6, 0.6, 0.6, 1)
}
d.RenderString("Undo", x2, y, 0, d.MaxHeight(), gui.Center)
}
}
}
func drawFurniture(roomx, roomy int, mat mathgl.Mat4, zoom float32, furniture []*Furniture, temp_furniture *Furniture, extras []Drawable, cstack base.ColorStack, los_tex *LosTexture, los_alpha float64) {
gl.Enable(gl.TEXTURE_2D)
gl.Color4d(1, 1, 1, los_alpha)
gl.PushMatrix()
gl.LoadIdentity()
board_to_window := func(mx, my float32) (x, y float32) {
v := mathgl.Vec4{X: mx, Y: my, W: 1}
v.Transform(&mat)
x, y = v.X, v.Y
return
}
g_stuff = g_stuff[0:0]
for i := range furniture {
g_stuff = append(g_stuff, furniture[i])
}
if temp_furniture != nil {
g_stuff = append(g_stuff, temp_furniture)
}
for i := range extras {
g_stuff = append(g_stuff, extras[i])
}
g_stuff = OrderRectObjects(g_stuff)
for i := len(g_stuff) - 1; i >= 0; i-- {
f := g_stuff[i]
var near_x, near_y, dx, dy float32
idx, idy := f.Dims()
dx = float32(idx)
dy = float32(idy)
switch d := f.(type) {
case *Furniture:
ix, iy := d.Pos()
near_x = float32(ix)
near_y = float32(iy)
case Drawable:
fx, fy := d.FPos()
near_x = float32(fx)
near_y = float32(fy)
}
vis_tot := 1.0
if los_tex != nil {
vis_tot = 0.0
// If we're looking at a piece of furniture that blocks Los then we
// can't expect to have Los to all of it, so we will check the squares
// around it. Full visibility will mean that half of the surrounding
// cells are visible.
blocks_los := false
// Also need to check if it is an enemy unit
if _, ok := f.(*Furniture); ok {
blocks_los = true
}
if blocks_los {
for x := near_x - 1; x < near_x+dx+1; x++ {
vis_tot += float64(los_tex.Pix()[int(x)+roomx][int(near_y-1)+roomy])
vis_tot += float64(los_tex.Pix()[int(x)+roomx][int(near_y+dy+1)+roomy])
}
for y := near_y; y < near_y+dy; y++ {
vis_tot += float64(los_tex.Pix()[int(near_x-1)+roomx][int(y)+roomy])
vis_tot += float64(los_tex.Pix()[int(near_x+dx+1)+roomx][int(y)+roomy])
}
vis_tot /= float64((dx*2 + dy*2 + 4) * 255 / 2)
if vis_tot > 1 {
vis_tot = 1
}
} else {
for x := near_x; x < near_x+dx; x++ {
for y := near_y; y < near_y+dy; y++ {
vis_tot += float64(los_tex.Pix()[int(x)+roomx][int(y)+roomy])
}
}
vis_tot /= float64(dx * dy * 255)
}
}
leftx, _ := board_to_window(near_x, near_y+dy)
rightx, _ := board_to_window(near_x+dx, near_y)
_, boty := board_to_window(near_x, near_y)
if f == temp_furniture {
cstack.Push(1, 0, 0, 0.4)
} else {
bot := (LosMinVisibility / 255.0)
vis := (vis_tot - bot) / (1 - bot)
vis = vis * vis
vis = vis*(1-bot) + bot
vis = vis * vis
cstack.Push(vis, vis, vis, 1)
}
cstack.ApplyWithAlpha(los_alpha)
cstack.Pop()
switch d := f.(type) {
case *Furniture:
d.Render(mathgl.Vec2{leftx, boty}, rightx-leftx)
case Drawable:
gl.Enable(gl.TEXTURE_2D)
x := (leftx + rightx) / 2
d.Render(mathgl.Vec2{x, boty}, rightx-leftx)
}
}
gl.PopMatrix()
}
func drawFloor(room *Room, floor mathgl.Mat4, temp *WallTexture, cstack base.ColorStack, los_tex *LosTexture, los_alpha float64, floor_drawer []FloorDrawer) {
gl.MatrixMode(gl.MODELVIEW)
gl.PushMatrix()
gl.LoadIdentity()
gl.MultMatrixf(&floor[0])
defer gl.PopMatrix()
gl.Enable(gl.STENCIL_TEST)
defer gl.Disable(gl.STENCIL_TEST)
gl.StencilFunc(gl.ALWAYS, 4, 4)
gl.StencilOp(gl.REPLACE, gl.REPLACE, gl.REPLACE)
gl.Disable(gl.TEXTURE_2D)
gl.Begin(gl.QUADS)
gl.Vertex2i(0, 0)
gl.Vertex2i(0, room.Size.Dy)
gl.Vertex2i(room.Size.Dx, room.Size.Dy)
gl.Vertex2i(room.Size.Dx, 0)
gl.End()
gl.StencilFunc(gl.EQUAL, 4, 15)
gl.StencilOp(gl.KEEP, gl.KEEP, gl.KEEP)
// Draw the floor
gl.Enable(gl.TEXTURE_2D)
cstack.ApplyWithAlpha(los_alpha)
room.Floor.Data().Render(0, 0, float64(room.Size.Dx), float64(room.Size.Dy))
if los_tex != nil {
los_tex.Bind()
gl.BlendFunc(gl.SRC_ALPHA_SATURATE, gl.SRC_ALPHA)
gl.Color4d(0, 0, 0, 1)
gl.Begin(gl.QUADS)
gl.TexCoord2i(0, 0)
gl.Vertex2i(-room.X, -room.Y)
gl.TexCoord2i(1, 0)
gl.Vertex2i(-room.X, los_tex.Size()-room.Y)
gl.TexCoord2i(1, 1)
gl.Vertex2i(los_tex.Size()-room.X, los_tex.Size()-room.Y)
gl.TexCoord2i(0, 1)
gl.Vertex2i(los_tex.Size()-room.X, -room.Y)
gl.End()
gl.BlendFunc(gl.SRC_ALPHA, gl.ONE_MINUS_SRC_ALPHA)
}
cstack.ApplyWithAlpha(los_alpha)
{
g_texs = g_texs[0:0]
if temp != nil {
g_texs = append(g_texs, *temp)
}
for _, tex := range room.WallTextures {
g_texs = append(g_texs, *tex)
}
for i, tex := range g_texs {
if tex.X >= float32(room.Size.Dx) {
tex.Rot -= 3.1415926535 / 2
}
if temp != nil && i == 0 {
cstack.Push(1, 0.7, 0.7, 0.7)
}
cstack.ApplyWithAlpha(los_alpha)
tex.Render()
if temp != nil && i == 0 {
cstack.Pop()
}
}
}
gl.PushMatrix()
gl.Translated(-float64(room.X), -float64(room.Y), 0)
for _, fd := range floor_drawer {
fd.RenderOnFloor()
}
gl.PopMatrix()
// Re-enable textures because floor_drawer.RenderOnFloor() might have
// disabled them
gl.Enable(gl.TEXTURE_2D)
gl.StencilFunc(gl.ALWAYS, 5, 5)
gl.StencilOp(gl.REPLACE, gl.REPLACE, gl.REPLACE)
gl.Disable(gl.TEXTURE_2D)
gl.Color4d(0, 0, 0, 0)
gl.Begin(gl.QUADS)
gl.Vertex2i(0, 0)
gl.Vertex2i(0, room.Size.Dy)
gl.Vertex2i(room.Size.Dx, room.Size.Dy)
gl.Vertex2i(room.Size.Dx, 0)
gl.End()
}
// room: the wall to draw
// wall: the texture to render on the wall
// temp: an additional texture to render along with the other detail textures
// specified in room
// left,right: the xy planes of the left and right walls
func drawWall(room *Room, floor, left, right mathgl.Mat4, temp_tex *WallTexture, temp_door doorInfo, cstack base.ColorStack, los_tex *LosTexture, los_alpha float64) {
gl.Enable(gl.STENCIL_TEST)
defer gl.Disable(gl.STENCIL_TEST)
gl.MatrixMode(gl.MODELVIEW)
gl.PushMatrix()
defer gl.PopMatrix()
var dz int
if room.Wall.Data().Dx() > 0 {
dz = room.Wall.Data().Dy() * (room.Size.Dx + room.Size.Dy) / room.Wall.Data().Dx()
}
corner := float32(room.Size.Dx) / float32(room.Size.Dx+room.Size.Dy)
gl.LoadIdentity()
gl.MultMatrixf(&floor[0])
g_texs = g_texs[0:0]
if temp_tex != nil {
g_texs = append(g_texs, *temp_tex)
}
for _, tex := range room.WallTextures {
g_texs = append(g_texs, *tex)
}
do_right_wall := func() {
gl.Begin(gl.QUADS)
gl.TexCoord2f(1, 0)
gl.Vertex3i(room.Size.Dx, 0, 0)
gl.TexCoord2f(1, -1)
gl.Vertex3i(room.Size.Dx, 0, -dz)
gl.TexCoord2f(corner, -1)
gl.Vertex3i(room.Size.Dx, room.Size.Dy, -dz)
gl.TexCoord2f(corner, 0)
gl.Vertex3i(room.Size.Dx, room.Size.Dy, 0)
gl.End()
}
g_doors = g_doors[0:0]
for _, door := range room.Doors {
g_doors = append(g_doors, door)
}
if temp_door.Door != nil {
g_doors = append(g_doors, temp_door.Door)
}
alpha := 0.2
do_right_doors := func(opened bool) {
for _, door := range g_doors {
if door.Facing != FarRight {
continue
}
if door.IsOpened() != opened {
continue
}
door.TextureData().Bind()
if door == temp_door.Door {
if temp_door.Valid {
cstack.Push(0, 0, 1, alpha)
} else {
cstack.Push(1, 0, 0, alpha)
}
}
cstack.ApplyWithAlpha(alpha * los_alpha)
gl.Begin(gl.QUADS)
height := float64(door.Width*door.TextureData().Dy()) / float64(door.TextureData().Dx())
gl.TexCoord2f(1, 0)
gl.Vertex3d(float64(room.Size.Dx), float64(door.Pos), 0)
gl.TexCoord2f(1, -1)
gl.Vertex3d(float64(room.Size.Dx), float64(door.Pos), -height)
gl.TexCoord2f(0, -1)
gl.Vertex3d(float64(room.Size.Dx), float64(door.Pos+door.Width), -height)
gl.TexCoord2f(0, 0)
gl.Vertex3d(float64(room.Size.Dx), float64(door.Pos+door.Width), 0)
gl.End()
if door == temp_door.Door {
cstack.Pop()
}
}
}
// Right wall
gl.StencilFunc(gl.NOTEQUAL, 8, 7)
gl.StencilOp(gl.DECR_WRAP, gl.REPLACE, gl.REPLACE)
gl.Color4d(0, 0, 0, 0)
do_right_wall()
gl.Enable(gl.TEXTURE_2D)
cstack.ApplyWithAlpha(alpha * los_alpha)
gl.StencilFunc(gl.EQUAL, 8, 15)
gl.StencilOp(gl.KEEP, gl.ZERO, gl.ZERO)
do_right_doors(true)
cstack.ApplyWithAlpha(1.0 * los_alpha)
gl.StencilFunc(gl.EQUAL, 15, 15)
gl.StencilOp(gl.KEEP, gl.ZERO, gl.ZERO)
do_right_doors(true)
for _, alpha := range []float64{alpha, 1.0} {
cstack.ApplyWithAlpha(alpha * los_alpha)
if alpha == 1.0 {
gl.StencilFunc(gl.EQUAL, 15, 15)
gl.StencilOp(gl.KEEP, gl.KEEP, gl.KEEP)
} else {
gl.StencilFunc(gl.EQUAL, 8, 15)
gl.StencilOp(gl.KEEP, gl.KEEP, gl.KEEP)
}
room.Wall.Data().Bind()
do_right_wall()
gl.PushMatrix()
gl.LoadIdentity()
gl.MultMatrixf(&right[0])
for i, tex := range g_texs {
dx, dy := float32(room.Size.Dx), float32(room.Size.Dy)
if tex.Y > dy {
tex.X, tex.Y = dx+tex.Y-dy, dy+dx-tex.X
}
if tex.X > dx {
tex.Rot -= 3.1415926535 / 2
}
tex.X -= dx
if temp_tex != nil && i == 0 {
cstack.Push(1, 0.7, 0.7, 0.7)
}
cstack.ApplyWithAlpha(alpha * los_alpha)
tex.Render()
if temp_tex != nil && i == 0 {
cstack.Pop()
}
}
gl.PopMatrix()
}
cstack.ApplyWithAlpha(alpha * los_alpha)
gl.StencilFunc(gl.EQUAL, 8, 15)
do_right_doors(false)
cstack.ApplyWithAlpha(1.0 * los_alpha)
gl.StencilFunc(gl.EQUAL, 15, 15)
do_right_doors(false)
// Go back over the area we just drew on and replace it with all b0001
gl.StencilFunc(gl.ALWAYS, 1, 1)
gl.StencilOp(gl.REPLACE, gl.REPLACE, gl.REPLACE)
gl.Color4d(0, 0, 0, 0)
do_right_wall()
// Now that the entire wall has been draw we can cast shadows on it if we've
// got a los texture
if los_tex != nil {
los_tex.Bind()
gl.BlendFunc(gl.SRC_ALPHA_SATURATE, gl.SRC_ALPHA)
gl.Color4d(0, 0, 0, 1)
tx := (float64(room.X+room.Size.Dx) - 0.5) / float64(los_tex.Size())
ty := (float64(room.Y) + 0.5) / float64(los_tex.Size())
ty2 := (float64(room.Y+room.Size.Dy) - 0.5) / float64(los_tex.Size())
gl.Begin(gl.QUADS)
gl.TexCoord2d(ty, tx)
gl.Vertex3i(room.Size.Dx, 0, 0)
gl.TexCoord2d(ty, tx)
gl.Vertex3i(room.Size.Dx, 0, -dz)
gl.TexCoord2d(ty2, tx)
gl.Vertex3i(room.Size.Dx, room.Size.Dy, -dz)
gl.TexCoord2d(ty2, tx)
gl.Vertex3i(room.Size.Dx, room.Size.Dy, 0)
gl.End()
gl.BlendFunc(gl.SRC_ALPHA, gl.ONE_MINUS_SRC_ALPHA)
}
do_left_wall := func() {
gl.Begin(gl.QUADS)
gl.TexCoord2f(corner, 0)
gl.Vertex3i(room.Size.Dx, room.Size.Dy, 0)
gl.TexCoord2f(corner, -1)
gl.Vertex3i(room.Size.Dx, room.Size.Dy, -dz)
gl.TexCoord2f(0, -1)
gl.Vertex3i(0, room.Size.Dy, -dz)
gl.TexCoord2f(0, 0)
gl.Vertex3i(0, room.Size.Dy, 0)
gl.End()
}
do_left_doors := func(opened bool) {
for _, door := range g_doors {
if door.Facing != FarLeft {
continue
}
if door.IsOpened() != opened {
continue
}
door.TextureData().Bind()
if door == temp_door.Door {
if temp_door.Valid {
cstack.Push(0, 0, 1, alpha)
} else {
cstack.Push(1, 0, 0, alpha)
}
}
cstack.ApplyWithAlpha(alpha * los_alpha)
gl.Begin(gl.QUADS)
height := float64(door.Width*door.TextureData().Dy()) / float64(door.TextureData().Dx())
gl.TexCoord2f(0, 0)
gl.Vertex3d(float64(door.Pos), float64(room.Size.Dy), 0)
gl.TexCoord2f(0, -1)
gl.Vertex3d(float64(door.Pos), float64(room.Size.Dy), -height)
gl.TexCoord2f(1, -1)
gl.Vertex3d(float64(door.Pos+door.Width), float64(room.Size.Dy), -height)
gl.TexCoord2f(1, 0)
gl.Vertex3d(float64(door.Pos+door.Width), float64(room.Size.Dy), 0)
gl.End()
if door == temp_door.Door {
cstack.Pop()
}
}
}
gl.StencilFunc(gl.NOTEQUAL, 8, 7)
gl.StencilOp(gl.DECR_WRAP, gl.REPLACE, gl.REPLACE)
gl.Color4d(0, 0, 0, 0)
do_left_wall()
gl.Enable(gl.TEXTURE_2D)
cstack.ApplyWithAlpha(alpha * los_alpha)
gl.StencilFunc(gl.EQUAL, 8, 15)
gl.StencilOp(gl.KEEP, gl.ZERO, gl.ZERO)
do_left_doors(true)
cstack.ApplyWithAlpha(1.0 * los_alpha)
gl.StencilFunc(gl.EQUAL, 15, 15)
gl.StencilOp(gl.KEEP, gl.ZERO, gl.ZERO)
do_left_doors(true)
for _, alpha := range []float64{alpha, 1.0} {
if alpha == 1.0 {
gl.StencilFunc(gl.EQUAL, 15, 15)
gl.StencilOp(gl.KEEP, gl.KEEP, gl.KEEP)
} else {
gl.StencilFunc(gl.EQUAL, 8, 15)
gl.StencilOp(gl.KEEP, gl.KEEP, gl.KEEP)
}
room.Wall.Data().Bind()
cstack.ApplyWithAlpha(alpha * los_alpha)
do_left_wall()
gl.PushMatrix()
gl.LoadIdentity()
gl.MultMatrixf(&left[0])
for i, tex := range g_texs {
dx, dy := float32(room.Size.Dx), float32(room.Size.Dy)
if tex.X > dx {
tex.X, tex.Y = dx+dy-tex.Y, dy+tex.X-dx
}
tex.Y -= dy
if temp_tex != nil && i == 0 {
cstack.Push(1, 0.7, 0.7, 0.7)
}
cstack.ApplyWithAlpha(alpha * los_alpha)
tex.Render()
if temp_tex != nil && i == 0 {
cstack.Pop()
}
}
gl.PopMatrix()
}
cstack.ApplyWithAlpha(alpha * los_alpha)
gl.StencilFunc(gl.EQUAL, 8, 15)
do_left_doors(false)
cstack.ApplyWithAlpha(1.0 * los_alpha)
gl.StencilFunc(gl.EQUAL, 15, 15)
do_left_doors(false)
// Go back over the area we just drew on and replace it with all b0010
gl.StencilFunc(gl.ALWAYS, 2, 2)
gl.StencilOp(gl.REPLACE, gl.REPLACE, gl.REPLACE)
gl.Color4d(0, 0, 0, 0)
do_left_wall()
// Now that the entire wall has been draw we can cast shadows on it if we've
// got a los texture
if los_tex != nil {
los_tex.Bind()
gl.BlendFunc(gl.SRC_ALPHA_SATURATE, gl.SRC_ALPHA)
gl.Color4d(0, 0, 0, 1)
ty := (float64(room.Y+room.Size.Dy) - 0.5) / float64(los_tex.Size())
tx := (float64(room.X) + 0.5) / float64(los_tex.Size())
tx2 := (float64(room.X+room.Size.Dx) - 0.5) / float64(los_tex.Size())
gl.Begin(gl.QUADS)
gl.TexCoord2d(ty, tx)
gl.Vertex3i(0, room.Size.Dy, 0)
gl.TexCoord2d(ty, tx)
gl.Vertex3i(0, room.Size.Dy, -dz)
gl.TexCoord2d(ty, tx2)
gl.Vertex3i(room.Size.Dx, room.Size.Dy, -dz)
gl.TexCoord2d(ty, tx2)
gl.Vertex3i(room.Size.Dx, room.Size.Dy, 0)
gl.End()
gl.BlendFunc(gl.SRC_ALPHA, gl.ONE_MINUS_SRC_ALPHA)
}
}
func (m *MainBar) Draw(region gui.Region) {
m.region = region
gl.Enable(gl.TEXTURE_2D)
m.layout.Background.Data().Bind()
gl.Color4d(1, 1, 1, 1)
gl.Begin(gl.QUADS)
gl.TexCoord2d(0, 0)
gl.Vertex2i(region.X, region.Y)
gl.TexCoord2d(0, -1)
gl.Vertex2i(region.X, region.Y+region.Dy)
gl.TexCoord2d(1, -1)
gl.Vertex2i(region.X+region.Dx, region.Y+region.Dy)
gl.TexCoord2d(1, 0)
gl.Vertex2i(region.X+region.Dx, region.Y)
gl.End()
buttons := m.no_actions_buttons
if m.ent != nil && len(m.ent.Actions) > m.layout.Actions.Count {
buttons = m.all_buttons
}
for _, button := range buttons {
button.RenderAt(region.X, region.Y)
}
ent := m.game.HoveredEnt()
if ent == nil {
ent = m.ent
}
if ent != nil && ent.Stats != nil {
gl.Color4d(1, 1, 1, 1)
ent.Still.Data().Bind()
tdx := ent.Still.Data().Dx()
tdy := ent.Still.Data().Dy()
cx := region.X + m.layout.CenterStillFrame.X
cy := region.Y + m.layout.CenterStillFrame.Y
gl.Begin(gl.QUADS)
gl.TexCoord2d(0, 0)
gl.Vertex2i(cx-tdx/2, cy-tdy/2)
gl.TexCoord2d(0, -1)
gl.Vertex2i(cx-tdx/2, cy+tdy/2)
gl.TexCoord2d(1, -1)
gl.Vertex2i(cx+tdx/2, cy+tdy/2)
gl.TexCoord2d(1, 0)
gl.Vertex2i(cx+tdx/2, cy-tdy/2)
gl.End()
m.layout.Name.RenderString(ent.Name)
m.layout.Ap.RenderString(fmt.Sprintf("Ap:%d", ent.Stats.ApCur()))
m.layout.Hp.RenderString(fmt.Sprintf("Hp:%d", ent.Stats.HpCur()))
m.layout.Corpus.RenderString(fmt.Sprintf("Corpus:%d", ent.Stats.Corpus()))
m.layout.Ego.RenderString(fmt.Sprintf("Ego:%d", ent.Stats.Ego()))
gl.Color4d(1, 1, 1, 1)
m.layout.Divider.Data().Bind()
tdx = m.layout.Divider.Data().Dx()
tdy = m.layout.Divider.Data().Dy()
cx = region.X + m.layout.Name.X
cy = region.Y + m.layout.Name.Y - 5
gl.Begin(gl.QUADS)
gl.TexCoord2d(0, 0)
gl.Vertex2i(cx-tdx/2, cy-tdy/2)
gl.TexCoord2d(0, -1)
gl.Vertex2i(cx-tdx/2, cy+(tdy+1)/2)
gl.TexCoord2d(1, -1)
gl.Vertex2i(cx+(tdx+1)/2, cy+(tdy+1)/2)
gl.TexCoord2d(1, 0)
gl.Vertex2i(cx+(tdx+1)/2, cy-tdy/2)
gl.End()
}
if m.ent != nil && m.ent.Stats != nil {
// Actions
{
spacing := m.layout.Actions.Icon_size * float64(m.layout.Actions.Count)
spacing = m.layout.Actions.Width - spacing
spacing /= float64(m.layout.Actions.Count - 1)
m.state.Actions.space = spacing
s := m.layout.Actions.Icon_size
num_actions := len(m.ent.Actions)
xpos := m.layout.Actions.X
if num_actions > m.layout.Actions.Count {
xpos -= m.state.Actions.scroll_pos * (s + spacing)
}
d := base.GetDictionary(10)
var r gui.Region
r.X = int(m.layout.Actions.X)
r.Y = int(m.layout.Actions.Y - d.MaxHeight())
r.Dx = int(m.layout.Actions.Width)
r.Dy = int(m.layout.Actions.Icon_size + d.MaxHeight())
r.PushClipPlanes()
gl.Color4d(1, 1, 1, 1)
for i, action := range m.ent.Actions {
// Highlight the selected action
if action == m.game.current_action {
gl.Disable(gl.TEXTURE_2D)
gl.Color4d(1, 0, 0, 1)
gl.Begin(gl.QUADS)
gl.Vertex3d(xpos-2, m.layout.Actions.Y-2, 0)
gl.Vertex3d(xpos-2, m.layout.Actions.Y+s+2, 0)
gl.Vertex3d(xpos+s+2, m.layout.Actions.Y+s+2, 0)
gl.Vertex3d(xpos+s+2, m.layout.Actions.Y-2, 0)
gl.End()
}
gl.Enable(gl.TEXTURE_2D)
action.Icon().Data().Bind()
if action.Preppable(m.ent, m.game) {
gl.Color4d(1, 1, 1, 1)
} else {
gl.Color4d(0.5, 0.5, 0.5, 1)
}
gl.Begin(gl.QUADS)
gl.TexCoord2d(0, 0)
gl.Vertex3d(xpos, m.layout.Actions.Y, 0)
gl.TexCoord2d(0, -1)
gl.Vertex3d(xpos, m.layout.Actions.Y+s, 0)
gl.TexCoord2d(1, -1)
gl.Vertex3d(xpos+s, m.layout.Actions.Y+s, 0)
gl.TexCoord2d(1, 0)
gl.Vertex3d(xpos+s, m.layout.Actions.Y, 0)
gl.End()
gl.Disable(gl.TEXTURE_2D)
ypos := m.layout.Actions.Y - d.MaxHeight() - 2
d.RenderString(fmt.Sprintf("%d", i+1), xpos+s/2, ypos, 0, d.MaxHeight(), gui.Center)
xpos += spacing + m.layout.Actions.Icon_size
}
r.PopClipPlanes()
// Now, if there is a selected action, position it between the arrows
if m.state.Actions.selected != nil {
// a := m.state.Actions.selected
d := base.GetDictionary(15)
x := m.layout.Actions.X + m.layout.Actions.Width/2
y := float64(m.layout.ActionLeft.Y)
str := fmt.Sprintf("%s:%dAP", m.state.Actions.selected.String(), m.state.Actions.selected.AP())
gl.Color4d(1, 1, 1, 1)
d.RenderString(str, x, y, 0, d.MaxHeight(), gui.Center)
}
}
// Conditions
{
gl.Color4d(1, 1, 1, 1)
c := m.layout.Conditions
d := base.GetDictionary(int(c.Size))
ypos := c.Y + c.Height - d.MaxHeight() + m.state.Conditions.scroll_pos
var r gui.Region
r.X = int(c.X)
r.Y = int(c.Y)
r.Dx = int(c.Width)
r.Dy = int(c.Height)
r.PushClipPlanes()
for _, s := range m.ent.Stats.ConditionNames() {
d.RenderString(s, c.X+c.Width/2, ypos, 0, d.MaxHeight(), gui.Center)
ypos -= float64(d.MaxHeight())
}
r.PopClipPlanes()
}
// Gear
if m.ent.ExplorerEnt != nil && m.ent.ExplorerEnt.Gear != nil {
gear := m.ent.ExplorerEnt.Gear
layout := m.layout.Gear
icon := gear.Small_icon.Data()
icon.RenderNatural(int(layout.X), int(layout.Y))
d := base.GetDictionary(10)
d.RenderString("Gear", layout.X+float64(icon.Dx())/2, layout.Y-d.MaxHeight(), 0, d.MaxHeight(), gui.Center)
}
}
// Mouseover text
if m.state.MouseOver.active {
var x int
switch m.state.MouseOver.location {
case mouseOverActions:
x = int(m.layout.Actions.X + m.layout.Actions.Width/2)
case mouseOverConditions:
x = int(m.layout.Conditions.X + m.layout.Conditions.Width/2)
case mouseOverGear:
default:
base.Warn().Printf("Got an unknown mouseover location: %d", m.state.MouseOver.location)
m.state.MouseOver.active = false
}
y := m.layout.Background.Data().Dy() - 40
d := base.GetDictionary(15)
d.RenderString(m.state.MouseOver.text, float64(x), float64(y), 0, d.MaxHeight(), gui.Center)
}
}
func handleLoadRequest(req loadRequest) {
f, _ := os.Open(req.path)
im, _, err := image.Decode(f)
f.Close()
if err != nil {
return
}
gray := true
dx := im.Bounds().Dx()
dy := im.Bounds().Dy()
for i := 0; i < dx; i++ {
for j := 0; j < dy; j++ {
r, g, b, _ := im.At(i, j).RGBA()
if r != g || g != b {
gray = false
break
}
}
if !gray {
break
}
}
var canvas draw.Image
var pix []byte
if gray {
ga := NewGrayAlpha(im.Bounds())
pix = ga.Pix
canvas = ga
} else {
pix = memory.GetBlock(4 * req.data.dx * req.data.dy)
canvas = &image.RGBA{pix, 4 * req.data.dx, im.Bounds()}
}
draw.Draw(canvas, im.Bounds(), im, image.Point{}, draw.Src)
load_mutex.Lock()
load_count += len(pix)
manual_unlock := false
// This prevents us from trying to send too much to opengl in a single
// frame. If we go over the threshold then we hold the lock until we're
// done sending data to opengl, then other requests will be free to
// queue up and they will run on the next frame.
if load_count < load_threshold {
load_mutex.Unlock()
} else {
manual_unlock = true
}
render.Queue(func() {
{
gl.Enable(gl.TEXTURE_2D)
req.data.texture = gl.GenTexture()
req.data.texture.Bind(gl.TEXTURE_2D)
gl.TexEnvf(gl.TEXTURE_ENV, gl.TEXTURE_ENV_MODE, gl.MODULATE)
gl.TexParameterf(gl.TEXTURE_2D, gl.TEXTURE_MIN_FILTER, gl.LINEAR_MIPMAP_LINEAR)
gl.TexParameterf(gl.TEXTURE_2D, gl.TEXTURE_MAG_FILTER, gl.LINEAR)
gl.TexParameterf(gl.TEXTURE_2D, gl.TEXTURE_WRAP_S, gl.REPEAT)
gl.TexParameterf(gl.TEXTURE_2D, gl.TEXTURE_WRAP_T, gl.REPEAT)
}
if gray {
glu.Build2DMipmaps(gl.TEXTURE_2D, gl.LUMINANCE_ALPHA, req.data.dx, req.data.dy, gl.LUMINANCE_ALPHA, pix)
} else {
glu.Build2DMipmaps(gl.TEXTURE_2D, gl.RGBA, req.data.dx, req.data.dy, gl.RGBA, pix)
}
memory.FreeBlock(pix)
if manual_unlock {
load_count = 0
load_mutex.Unlock()
}
})
}
