require "CocoStudio" cc = cc or {} cc.DIRECTOR_PROJECTION_2D = 0 cc.DIRECTOR_PROJECTION_3D = 1 function cc.clampf(value, min_inclusive, max_inclusive) -- body local temp = 0 if min_inclusive > max_inclusive then temp = min_inclusive min_inclusive = max_inclusive max_inclusive = temp end if value < min_inclusive then return min_inclusive elseif value < max_inclusive then return value else return max_inclusive end end --Point function cc.p(_x,_y) if nil == _y then return { x = _x.x, y = _x.y } else return { x = _x, y = _y } end end function cc.pAdd(pt1,pt2) return {x = pt1.x + pt2.x , y = pt1.y + pt2.y } end function cc.pSub(pt1,pt2) return {x = pt1.x - pt2.x , y = pt1.y - pt2.y } end function cc.pMul(pt1,factor) return { x = pt1.x * factor , y = pt1.y * factor } end function cc.pMidpoint(pt1,pt2) return { x = (pt1.x + pt2.x) / 2.0 , y = ( pt1.y + pt2.y) / 2.0 } end function cc.pForAngle(a) return { x = math.cos(a), y = math.sin(a) } end function cc.pGetLength(pt) return math.sqrt( pt.x * pt.x + pt.y * pt.y ) end function cc.pNormalize(pt) local length = cc.pGetLength(pt) if 0 == length then return { x = 1.0,y = 0.0 } end return { x = pt.x / length, y = pt.y / length } end function cc.pCross(self,other) return self.x * other.y - self.y * other.x end function cc.pDot(self,other) return self.x * other.x + self.y * other.y end function cc.pToAngleSelf(self) return math.atan2(self.y, self.x) end function cc.pGetAngle(self,other) local a2 = cc.pNormalize(self) local b2 = cc.pNormalize(other) local angle = math.atan2(cc.pCross(a2, b2), cc.pDot(a2, b2) ) if math.abs(angle) < 1.192092896e-7 then return 0.0 end return angle end function cc.pGetDistance(startP,endP) return cc.pGetLength(cc.pSub(startP,endP)) end function cc.pIsLineIntersect(A, B, C, D, s, t) if ((A.x == B.x) and (A.y == B.y)) or ((C.x == D.x) and (C.y == D.y))then return false, s, t end local BAx = B.x - A.x local BAy = B.y - A.y local DCx = D.x - C.x local DCy = D.y - C.y local ACx = A.x - C.x local ACy = A.y - C.y local denom = DCy * BAx - DCx * BAy s = DCx * ACy - DCy * ACx t = BAx * ACy - BAy * ACx if (denom == 0) then if (s == 0 or t == 0) then return true, s , t end return false, s, t end s = s / denom t = t / denom return true,s,t end function cc.pPerp(pt) return { x = -pt.y, y = pt.x } end function cc.RPerp(pt) return { x = pt.y, y = -pt.x } end function cc.pProject(pt1, pt2) return { x = pt2.x * (cc.pDot(pt1,pt2) / cc.pDot(pt2,pt2)) , y = pt2.y * (cc.pDot(pt1,pt2) / cc.pDot(pt2,pt2)) } end function cc.pRotate(pt1, pt2) return { x = pt1.x * pt2.x - pt1.y * pt2.y, y = pt1.x * pt2.y + pt1.y * pt2.x } end function cc.pUnrotate(pt1, pt2) return { x = pt1.x * pt2.x + pt1.y * pt2.y, pt1.y * pt2.x - pt1.x * pt2.y } end --Calculates the square length of pt function cc.pLengthSQ(pt) return cc.pDot(pt,pt) end --Calculates the square distance between pt1 and pt2 function cc.pDistanceSQ(pt1,pt2) return cc.pLengthSQ(cc.pSub(pt1,pt2)) end function cc.pGetClampPoint(pt1,pt2,pt3) return { x = cc.clampf(pt1.x, pt2.x, pt3.x), y = cc.clampf(pt1.y, pt2.y, pt3.y) } end function cc.pFromSize(sz) return { x = sz.width, y = sz.height } end function cc.pLerp(pt1,pt2,alpha) return cc.pAdd(cc.pMul(pt1, 1.0 - alpha), cc.pMul(pt2,alpha) ) end function cc.pFuzzyEqual(pt1,pt2,variance) if (pt1.x - variance <= pt2.x) and (pt2.x <= pt1.x + variance) and (pt1.y - variance <= pt2.y) and (pt2.y <= pt1.y + variance) then return true else return false end end function cc.pRotateByAngle(pt1, pt2, angle) return cc.pAdd(pt2, cc.pRotate( cc.pSub(pt1, pt2),cc.pForAngle(angle))) end function cc.pIsSegmentIntersect(pt1,pt2,pt3,pt4) local s,t,ret = 0,0,false ret,s,t =cc.pIsLineIntersect(pt1, pt2, pt3, pt4,s,t) if ret and s >= 0.0 and s <= 1.0 and t >= 0.0 and t <= 0.0 then return true; end return false end function cc.pGetIntersectPoint(pt1,pt2,pt3,pt4) local s,t, ret = 0,0,false ret,s,t = cc.pIsLineIntersect(pt1,pt2,pt3,pt4,s,t) if ret then return cc.p(pt1.x + s * (pt2.x - pt1.x), pt1.y + s * (pt2.y - pt1.y)) else return cc.p(0,0) end end --Size function cc.size( _width,_height ) return { width = _width, height = _height } end --Rect function cc.rect(_x,_y,_width,_height) return { x = _x, y = _y, width = _width, height = _height } end function cc.rectEqualToRect(rect1,rect2) if ((rect1.x >= rect2.x) or (rect1.y >= rect2.y) or ( rect1.x + rect1.width <= rect2.x + rect2.width) or ( rect1.y + rect1.height <= rect2.y + rect2.height)) then return false end return true end function cc.rectGetMaxX(rect) return rect.x + rect.width end function cc.rectGetMidX(rect) return rect.x + rect.width / 2.0 end function cc.rectGetMinX(rect) return rect.x end function cc.rectGetMaxY(rect) return rect.y + rect.height end function cc.rectGetMidY(rect) return rect.y + rect.height / 2.0 end function cc.rectGetMinY(rect) return rect.y end function cc.rectContainsPoint( rect, point ) local ret = false if (point.x >= rect.x) and (point.x <= rect.x + rect.width) and (point.y >= rect.y) and (point.y <= rect.y + rect.height) then ret = true end return ret end function cc.rectIntersectsRect( rect1, rect2 ) local intersect = not ( rect1.x > rect2.x + rect2.width or rect1.x + rect1.width < rect2.x or rect1.y > rect2.y + rect2.height or rect1.y + rect1.height < rect2.y ) return intersect end function cc.rectUnion( rect1, rect2 ) local rect = cc.rect(0, 0, 0, 0) rect.x = math.min(rect1.x, rect2.x) rect.y = math.min(rect1.y, rect2.y) rect.width = math.max(rect1.x + rect1.width, rect2.x + rect2.width) - rect.x rect.height = math.max(rect1.y + rect1.height, rect2.y + rect2.height) - rect.y return rect end function cc.rectIntersection( rect1, rect2 ) local intersection = cc.rect( math.max(rect1.x, rect2.x), math.max(rect1.y, rect2.y), 0, 0) intersection.width = math.min(rect1.x + rect1.width, rect2.x + rect2.width) - intersection.x intersection.height = math.min(rect1.y + rect1.height, rect2.y + rect2.height) - intersection.y return intersection end --Color3B function cc.c3b( _r,_g,_b ) return { r = _r, g = _g, b = _b } end --Color4B function cc.c4b( _r,_g,_b,_a ) return { r = _r, g = _g, b = _b, a = _a } end --Color4F function cc.c4f( _r,_g,_b,_a ) return { r = _r, g = _g, b = _b, a = _a } end --Vertex2F function cc.vertex2F(_x,_y) return { x = _x, y = _y } end --Vertex3F function cc.Vertex3F(_x,_y,_z) return { x = _x, y = _y, z = _z } end --Tex2F function cc.tex2F(_u,_v) return { u = _u, v = _v } end --PointSprite function cc.PointSprite(_pos,_color,_size) return { pos = _pos, color = _color, size = _size } end --Quad2 function cc.Quad2(_tl,_tr,_bl,_br) return { tl = _tl, tr = _tr, bl = _bl, br = _br } end --Quad3 function cc.Quad3(_tl, _tr, _bl, _br) return { tl = _tl, tr = _tr, bl = _bl, br = _br } end --V2F_C4B_T2F function cc.V2F_C4B_T2F(_vertices, _colors, _texCoords) return { vertices = _vertices, colors = _colors, texCoords = _texCoords } end --V2F_C4F_T2F function cc.V2F_C4F_T2F(_vertices, _colors, _texCoords) return { vertices = _vertices, colors = _colors, texCoords = _texCoords } end --V3F_C4B_T2F function cc.V3F_C4B_T2F(_vertices, _colors, _texCoords) return { vertices = _vertices, colors = _colors, texCoords = _texCoords } end --V2F_C4B_T2F_Quad function cc.V2F_C4B_T2F_Quad(_bl, _br, _tl, _tr) return { bl = _bl, br = _br, tl = _tl, tr = _tr } end --V3F_C4B_T2F_Quad function cc.V3F_C4B_T2F_Quad(_tl, _bl, _tr, _br) return { tl = _tl, bl = _bl, tr = _tr, br = _br } end --V2F_C4F_T2F_Quad function cc.V2F_C4F_T2F_Quad(_bl, _br, _tl, _tr) return { bl = _bl, br = _br, tl = _tl, tr = _tr } end --T2F_Quad function cc.T2F_Quad(_bl, _br, _tl, _tr) return { bl = _bl, br = _br, tl = _tl, tr = _tr } end --AnimationFrameData function cc.AnimationFrameData( _texCoords, _delay, _size) return { texCoords = _texCoords, delay = _delay, size = _size } end --PhysicsMaterial function cc.PhysicsMaterial(_density, _restitution, _friction) return { density = _density, restitution = _restitution, friction = _friction } end local ConfigType = { NONE = 0, COCOSTUDIO = 1, } function __onParseConfig(configType,jasonStr) if configType == ConfigType.COCOSTUDIO then ccs.TriggerMng.getInstance():parse(jasonStr) end end