local plr = game.Players.G_osty
local character = plr.Character
RootPart=character.HumanoidRootPart
RootJoint=RootPart.RootJoint
character.Torso.roblox:Destroy()
tors = character.Torso
local Player_Size = 1
vt=Vector3.new
VT=Vector3.new
cf=CFrame.new
euler=CFrame.fromEulerAnglesXYZ
necko=cf(0, 1, 0, -1, -0, -0, 0, 0, 1, 0, 1, 0)
necko2=cf(0, -0.5, 0, -1, -0, -0, 0, 0, 1, 0, 1, 0)
LHC0=cf(-1,-1,0,-0,-0,-1,0,1,0,1,0,0)
LHC1=cf(-0.5,1,0,-0,-0,-1,0,1,0,1,0,0)
RHC0=cf(1,-1,0,0,0,1,0,1,0,-1,-0,-0)
RHC1=cf(0.5,1,0,0,0,1,0,1,0,-1,-0,-0)
RootPart=character.HumanoidRootPart
RootJoint=RootPart.RootJoint
RootCF=euler(-1.57,0,3.14)
RAD=math.rad
COS=math.cos

local r = 255,0,0
local g = 0,255,0
local b = 0,0,255
coroutine.resume(coroutine.create(function()
while wait(1) do
	for i,v in pairs(character:GetChildren()) do
		if v:IsA("Part") and v.Name ~= "Head" then
			local v2 = v:Clone()
			v2:ClearAllChildren()
			v2.Name = "Glow"
			v2.Transparency = 0.7
			v2.CanCollide = false
			v2.Anchored = true
			v2.Material = Enum.Material.Neon
			v2.Parent = character
			v2.Color = Color3.fromRGB(r)
			v2.Position = v.Position + Vector3.new(-math.random(0.1,3),math.random(0.1,3),-math.random(0.1,3))
			local v3 = v:Clone()
			v3:ClearAllChildren()
			v3.Name = "Glow"
			v3.Transparency = 0.7
			v3.CanCollide = false
			v3.Anchored = true
			v3.Material = Enum.Material.Neon
			v3.Parent = character
			v3.Color = Color3.fromRGB(0,255,0)
			v3.Position = v.Position + Vector3.new(math.random(0.1,3),-math.random(0.1,3),math.random(0.1,3))
			local v4 = v:Clone()
			v4:ClearAllChildren()
			v4.Name = "Glow"
			v4.Transparency = 0.7
			v4.CanCollide = false
			v4.Anchored = true
			v4.Material = Enum.Material.Neon
			v4.Parent = character
			v4.Color = Color3.fromRGB(0,0,255)
			v4.Position = v.Position + Vector3.new(-math.random(0.1,3),math.random(0.1,3),-math.random(0.1,3))

			wait()
			v3:Destroy()
			v4:Destroy()
			v2:Destroy()
		end
	end
end
end))
function clerp(a,b,t)
local qa = {QuaternionFromCFrame(a)}
local qb = {QuaternionFromCFrame(b)}
local ax, ay, az = a.x, a.y, a.z
local bx, by, bz = b.x, b.y, b.z
local _t = 1-t
return QuaternionToCFrame(_t*ax + t*bx, _t*ay + t*by, _t*az + t*bz,QuaternionSlerp(qa, qb, t))
end


function aclerp(startCF,endCF,alpha)
    return startCF:lerp(endCF, alpha)
end


function Clerp(a,b,t)
local qa = {QuaternionFromCFrame(a)}
local qb = {QuaternionFromCFrame(b)}
local ax, ay, az = a.x, a.y, a.z
local bx, by, bz = b.x, b.y, b.z
local _t = 1-t
return QuaternionToCFrame(_t*ax + t*bx, _t*ay + t*by, _t*az + t*bz,QuaternionSlerp(qa, qb, t))
end

function QuaternionFromCFrame(cf)
local mx, my, mz, m00, m01, m02, m10, m11, m12, m20, m21, m22 = cf:components()
local trace = m00 + m11 + m22
if trace > 0 then
local s = math.sqrt(1 + trace)
local recip = 0.5/s
return (m21-m12)*recip, (m02-m20)*recip, (m10-m01)*recip, s*0.5
else
local i = 0
if m11 > m00 then
i = 1
end
if m22 > (i == 0 and m00 or m11) then
i = 2
end
if i == 0 then
local s = math.sqrt(m00-m11-m22+1)
local recip = 0.5/s
return 0.5*s, (m10+m01)*recip, (m20+m02)*recip, (m21-m12)*recip
elseif i == 1 then
local s = math.sqrt(m11-m22-m00+1)
local recip = 0.5/s
return (m01+m10)*recip, 0.5*s, (m21+m12)*recip, (m02-m20)*recip
elseif i == 2 then
local s = math.sqrt(m22-m00-m11+1)
local recip = 0.5/s return (m02+m20)*recip, (m12+m21)*recip, 0.5*s, (m10-m01)*recip
end
end
end

function QuaternionToCFrame(px, py, pz, x, y, z, w)
local xs, ys, zs = x + x, y + y, z + z
local wx, wy, wz = w*xs, w*ys, w*zs
local xx = x*xs
local xy = x*ys
local xz = x*zs
local yy = y*ys
local yz = y*zs
local zz = z*zs
return CFrame.new(px, py, pz,1-(yy+zz), xy - wz, xz + wy,xy + wz, 1-(xx+zz), yz - wx, xz - wy, yz + wx, 1-(xx+yy))
end

function QuaternionSlerp(a, b, t)
local cosTheta = a[1]*b[1] + a[2]*b[2] + a[3]*b[3] + a[4]*b[4]
local startInterp, finishInterp;
if cosTheta >= 0.0001 then
if (1 - cosTheta) > 0.0001 then
local theta = math.acos(cosTheta)
local invSinTheta = 1/math.sin(theta)
startInterp = math.sin((1-t)*theta)*invSinTheta
finishInterp = math.sin(t*theta)*invSinTheta
else
startInterp = 1-t
finishInterp = t
end
else
if (1+cosTheta) > 0.0001 then
local theta = math.acos(-cosTheta)
local invSinTheta = 1/math.sin(theta)
startInterp = math.sin((t-1)*theta)*invSinTheta
finishInterp = math.sin(t*theta)*invSinTheta
else
startInterp = t-1
finishInterp = t
end
end
return a[1]*startInterp + b[1]*finishInterp, a[2]*startInterp + b[2]*finishInterp, a[3]*startInterp + b[3]*finishInterp, a[4]*startInterp + b[4]*finishInterp
end
LW=tors["Left Shoulder"]
LH=tors["Left Hip"]
RW=tors["Right Shoulder"]
RH=tors["Right Hip"]
CF = CFrame.new
Sin = math.sin
Cos = math.cos
Rad = math.rad
angles=CFrame.Angles
local sine = 0
coroutine.resume(coroutine.create(function()
	while wait() do
		RootJoint.C0 = clerp(RootJoint.C0, RootCF * CF(0* Player_Size, 0* Player_Size, 2 + 0.25* Player_Size * Cos(sine / 12)) * angles(Rad(25), Rad(0), Rad(0)), 0.1)
tors.Neck.C0 = clerp(tors.Neck.C0, necko* CF(0, 0, 0 + ((1* Player_Size) - 1)) * angles(Rad(15 - 6.5 * Sin(sine / 12)), Rad(0), Rad(0)), 0.05)
RH.C0 = clerp(RH.C0, CF(1* Player_Size, -1 - 0.15 * Cos(sine / 20)* Player_Size, -0.1* Player_Size) * angles(Rad(0), Rad(76), Rad(0)) * angles(Rad(-8.5 - 6.5 * Sin(sine / 12)), Rad(0), Rad(15)), 0.1)
LH.C0 = clerp(LH.C0, CF(-1.1* Player_Size, -0.6 - 0.15 * Cos(sine / 20)* Player_Size, -0.3* Player_Size) * angles(Rad(0), Rad(-76), Rad(0)) * angles(Rad(-8.5 - 6.5 * Sin(sine / 12)), Rad(15), Rad(25)), 0.1)
RW.C0 = clerp(RW.C0, CF(1.4* Player_Size, 0.4 + 0.08 * Sin(sine / 12)* Player_Size, 0* Player_Size) * angles(Rad(25 - 6.5 * Cos(sine / 12)), Rad(-.6), Rad(13 + 6.5 * Sin(sine / 12))), 0.1)
LW.C0 = clerp(LW.C0, CF(-1.4* Player_Size, 0.4 + 0.08 * Sin(sine / 12)* Player_Size, 0* Player_Size) * angles(Rad(25 - 6.5 * Cos(sine / 12)), Rad(-.6), Rad(-13 - 6.5 * Sin(sine / 12))), 0.1)

	end
end))