1 files changed, 0 insertions, 139 deletions
diff --git a/gamemode/server/heatmap.lua b/gamemode/server/heatmap.lua
deleted file mode 100644
index 1e95590..0000000
--- a/gamemode/server/heatmap.lua
+++ /dev/null
@@ -1,139 +0,0 @@
---[[
-    Some helper methods for useing heatmaps
-]]
-do return end
-print("Hello from heatmap.lua!")
-local prs = pairs
-local tblins,tbldel = table.insert, table.remove
-local pow,sqrt,max = math.pow, math.sqrt, math.max
-
-heatmap = {}
-
--- local function VectorDistance(vec1,vec2)
---     if vec1.Distance then return vec1:Distance(vec2)
---     else
---         local dist = 0
---         for k,v in prs(vec1) do
---             local add = pow(vec1[k]-vec2[k],2)
---             dist = dist + add
---         end
---         dist = sqrt(dist)
---         return dist
---     end
--- end
-
-local function VectorLength(vec)
-    if vec.Length then return vec:Length()
-    else
-        local len = 0
-        for k,v in prs do
-            local add = pow(v,2)
-            len = len + add
-        end
-        len = sqrt(len)
-        return len
-    end
-end
-
-
-local function RegisterEffect(self, func, position)
-    local stbl = {position,func}
-    tblins(self.heatpoints,#self.heatpoints + 1,stbl)
-end
-
-local function CalculateFor(self, position)
-    local sh = self.heatpoints[1]
-    local total = sh[2](sh[1]-position,self.curtime)
-    for k = 2,#self.heatpoints do
-        sh = self.heatpoints[k]
-        total, shouldremove = total + sh[2](sh[1]-position,self.curtime)
-        if shouldremove then tbldel(k) end
-    end
-    return total
-end
-
---- Creates a heat map to keep track of effects.
--- Effects must be structured as a function that takes a vector (position from origin of effect) and number(time) and returns a value
--- @return a heatmap object
-function heatmap.CreateHeatMap()
-    local tbl = {}
-    tbl.heatpoints = {}
-    tbl.curtime = 0
-    tbl.RegisterEffect = RegisterEffect
-    tbl.CalculateFor = CalculateFor
-    return tbl
-end
-
-function heatmap.UniformInfiniteForever(field)
-    return function(vector, time)
-        return field, false
-    end
-end
-
-function heatmap.UniformInfiniteLinearDecay(field,decayrate)
-    return function(vector,time)
-        return heatmap.UniformInfiniteForever(field) - (time * decayrate), false
-    end
-end
-
-function heatmap.UniformInfiniteLinearDecayGrounded(field,decayrate)
-    local removetime = field / decayrate
-    return function(vector,time)
-        return max(heatmap.UniformInfiniteLinearDecay(field,decayrate),0), time < removetime
-    end
-end
-
-function heatmap.LinearInfiniteForever(field)
-    return function(vector, time)
-        return field - VectorLength(vector), false
-    end
-end
-
-function heatmap.LinearInfiniteForeverGrounded(field)
-    return function(vector,time)
-        return max(heatmap.LinearInfiniteForever(field),0), false
-    end
-end
-
-function heatmap.LinearInfiniteLinearDecay(field,decayrate)
-    return function(vector, time)
-        return field - VectorLength(vector) - (time * decayrate), false
-    end
-end
-
-function heatmap.LinearInfiniteLinearDecayGrounded(field,decayrate)
-    local removetime = field / decayrate
-    return function(vector, time)
-        return max(field-VectorLength(vector) - (time * decayrate),0), time < removetime
-    end
-end
-
-function heatmap.ParabolicInfiniteForever(field, power)
-    return function(vector, time)
-        return field - pow(VectorLength(vector),power) / pow(100,power), false
-    end
-end
-
-function heatmap.ParabolicInfiniteForeverGrounded(field, power)
-    return function(vector, time)
-        local pre = heatmap.ParabolicInfiniteForever(field, power)
-        --print("pre is:")
-        --print(pre)
-        return max(pre,0), false
-    end
-end
-
-function heatmap.ParabolicInfiniteLinearDecay(field,power,decayrate)
-    return function(vector, time)
-        return heatmap.ParabolicInfiniteForever(field, power) - (time * decayrate), false
-    end
-end
-
-function heatmap.ParabolicInfiniteLinearDecayGrounded(field,power,decayrate)
-    local removetime = field / decayrate
-    return function(vector,time)
-        return max(heatmap.ParabolicInfiniteLinearDecay(field,power,decayrate),0), time < removetime
-    end
-end
-
-return heatmap