619 lines
21 KiB
Lua
619 lines
21 KiB
Lua
--[[
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S2 song attribute radar component
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Original code thanks to RealFD, he's a real homie
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]]
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require("common.globals")
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require("api.point2d")
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require("api.color")
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local Dim = require("common.dimensions")
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local Util = require("common.util")
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Dim.updateResolution()
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local RADAR_PURPLE = ColorRGBA.new(238, 130, 238)
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local RADAR_MAGENTA = ColorRGBA.new(191, 70, 235)
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local RADAR_GREEN = ColorRGBA.new(0, 255, 100)
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local maxScaleFactor = 1.8
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---@param p1 Point2D
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---@param p2 Point2D
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---@param width number
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---@param color ColorRGBA
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local function drawLine(p1, p2, width, color)
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gfx.BeginPath()
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gfx.MoveTo(p1:coords())
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gfx.LineTo(p2:coords())
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gfx.StrokeColor(color:components())
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gfx.StrokeWidth(width)
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gfx.Stroke()
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end
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---@param pos Point2D
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---@param text string
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---@param outlineWidth number
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---@param color ColorRGBA
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local function renderOutlinedText(pos, text, outlineWidth, color)
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local x, y = pos:coords()
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local dimColor = color:mix(ColorRGBA.BLACK, 0.8)
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gfx.FillColor(dimColor:components());
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gfx.Text(text, x - outlineWidth, y + outlineWidth);
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gfx.Text(text, x - outlineWidth, y - outlineWidth);
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gfx.Text(text, x + outlineWidth, y + outlineWidth);
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gfx.Text(text, x + outlineWidth, y - outlineWidth);
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gfx.FillColor(color:components());
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gfx.Text(text, x, y);
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end
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---@param pos Point2D
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---@param graphdata table
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local function drawDebugText(pos, graphdata)
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local color = ColorRGBA.WHITE
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gfx.Save()
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gfx.TextAlign(gfx.TEXT_ALIGN_LEFT + gfx.TEXT_ALIGN_CENTER)
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renderOutlinedText(pos, "NOTES = " .. graphdata.notes, 1, color)
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renderOutlinedText(pos, "PEAK = " .. graphdata.peak, 1, color)
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renderOutlinedText(pos, "TSUMAMI = " .. graphdata.tsumami, 1, color)
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renderOutlinedText(pos, "TRICKY = " .. graphdata.tricky, 1, color)
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renderOutlinedText(pos, "ONE-HAND = " .. graphdata.onehand, 1, color)
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renderOutlinedText(pos, "HAND-TRIP = " .. graphdata.handtrip, 1, color)
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--renderOutlinedText(pos, "NOTES (Relative) = " .. graphdata.notes_relative, 1, color)
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--renderOutlinedText(pos, "TOTAL-MESURES = " .. graphdata.measures, 1, color)
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gfx.Restore()
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end
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---@class CRadarAttributes
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RadarAttributes = {
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---Create RadarAttributes instance
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---@param text? string # default ""
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---@param offset? Point2D # default (0, 0)
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---@param color? ColorRGBA # default BLACK
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---@param align? integer # gfx.TEXT_ALIGN_<...> values, default gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_BASELINE
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---@return RadarAttributes
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new = function (text, offset, color, align)
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---@class RadarAttributes
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---@field text string
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---@field offset Point2D
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---@field color ColorRGBA
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local o = {
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text = text or "",
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offset = offset or Point2D.ZERO,
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color = color or ColorRGBA.BLACK,
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align = align or gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_BASELINE
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}
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setmetatable(o, RadarAttributes)
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return o
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end
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}
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RadarAttributes.__index = RadarAttributes
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---@class CRadar
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Radar = {
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---@type RadarAttributes[][]
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ATTRIBUTES = {
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{RadarAttributes.new("notes", Point2D.new(0, 0), ColorRGBA.CYAN, gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_BOTTOM),},
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{RadarAttributes.new("peak", Point2D.new(0, 0), ColorRGBA.RED, gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_BOTTOM), },
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{RadarAttributes.new("tsumami", Point2D.new(0, 0), RADAR_PURPLE, gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_TOP),},
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{RadarAttributes.new("tricky", Point2D.new(0, 0), ColorRGBA.YELLOW, gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_TOP),},
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{
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RadarAttributes.new("hand", Point2D.new(0, 0), RADAR_MAGENTA, gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_TOP),
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RadarAttributes.new("trip", Point2D.new(5, 16), RADAR_MAGENTA, gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_TOP),
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},
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{
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RadarAttributes.new("one", Point2D.new(6, -16), RADAR_GREEN, gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_BOTTOM),
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RadarAttributes.new("hand", Point2D.new(0, 0), RADAR_GREEN, gfx.TEXT_ALIGN_CENTER + gfx.TEXT_ALIGN_BOTTOM),
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}
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},
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RADIUS = 100.0,
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---Create Radar instance
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---@param pos Point2D
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---@param radius? number
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---@return Radar
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new = function (pos, radius)
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---@class Radar : CRadar
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local o = {
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_graphdata = {
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notes = 0,
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peak = 0,
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tsumami = 0,
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tricky = 0,
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handtrip = 0,
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onehand = 0,
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},
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_hexagonMesh = gfx.CreateShadedMesh("radar"),
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_outlineVertices = {},
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_attributePositions = {}, ---@type Point2D[][]
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_angleStep = (2 * math.pi) / #Radar.ATTRIBUTES, -- 360° / no. attributes, in radians
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_initRotation = math.pi / 2, -- 90°, in radians
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pos = pos or Point2D.ZERO,
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scale = radius and radius / Radar.RADIUS or 1.0,
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}
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local sides = #Radar.ATTRIBUTES
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local outlineRadius = Radar.RADIUS
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local attributeRadius = Radar.RADIUS + 30
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for i = 0, sides - 1 do
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local attrIdx = i + 1
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local angle = i * o._angleStep - o._initRotation
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local cosAngle = math.cos(angle)
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local sinAngle = math.sin(angle)
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-- cache outline vertices
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table.insert(o._outlineVertices, Point2D.new(outlineRadius * cosAngle, outlineRadius * sinAngle))
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-- cache attribute positions
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table.insert(o._attributePositions, {})
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for j = 1, #Radar.ATTRIBUTES[attrIdx] do
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local attr = Radar.ATTRIBUTES[attrIdx][j]
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local attributePos = Point2D.new(attributeRadius * cosAngle, attributeRadius * sinAngle)
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attributePos.x = attributePos.x + attr.offset.x
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attributePos.y = attributePos.y + attr.offset.y
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table.insert(o._attributePositions[attrIdx], j, attributePos)
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end
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end
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setmetatable(o, Radar)
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return o
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end,
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}
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Radar.__index = Radar
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---@param w number
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---@param color ColorRGBA
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function Radar:drawOutline(w, color)
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---@cast self Radar
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for i = 1, #self._outlineVertices do
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local j = i % #self._outlineVertices + 1
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drawLine(self._outlineVertices[i], self._outlineVertices[j], w, color)
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end
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end
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---@param color ColorRGBA
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---@param ticks? integer
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function Radar:drawRadialTicks(color, ticks)
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---@cast self Radar
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ticks = ticks or 3
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gfx.Save()
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gfx.StrokeColor(color:components())
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for i, vertex in ipairs(self._outlineVertices) do
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gfx.BeginPath()
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gfx.MoveTo(0, 0)
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gfx.LineTo(vertex.x, vertex.y)
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gfx.Stroke()
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local lineLength = math.sqrt(vertex.x * vertex.x + vertex.y * vertex.y)
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local tinyLineLength = 10
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local tinyLineAngle = math.atan(vertex.y / vertex.x)
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if vertex.x < 0 then
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tinyLineAngle = tinyLineAngle + math.pi
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end
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local halfTinyLineLength = tinyLineLength / 2
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for j = 1, ticks do
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local distanceFromCenter = j * lineLength / (ticks + 1) -- Adjusted for 3 middle lines
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local offsetX = distanceFromCenter * (vertex.x / lineLength)
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local offsetY = distanceFromCenter * (vertex.y / lineLength)
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local endX = halfTinyLineLength * math.cos(tinyLineAngle - math.pi / 2) -- Rotate by -90 degrees
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local endY = halfTinyLineLength * math.sin(tinyLineAngle - math.pi / 2) -- Rotate by -90 degrees
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local offsetX2 = halfTinyLineLength * math.cos(tinyLineAngle + math.pi / 2)
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local offsetY2 = halfTinyLineLength * math.sin(tinyLineAngle + math.pi / 2)
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gfx.BeginPath()
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gfx.MoveTo(offsetX - offsetX2, offsetY - offsetY2)
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gfx.LineTo(endX + offsetX + offsetX2 + offsetX2, endY + offsetY + offsetY2 + offsetY2)
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gfx.Stroke()
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end
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end
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gfx.Restore()
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end
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---@param fillColor ColorRGBA
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function Radar:drawBackground(fillColor)
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---@cast self Radar
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gfx.Save()
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gfx.BeginPath()
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gfx.MoveTo(self._outlineVertices[1].x, self._outlineVertices[1].y)
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for i = 2, #self._outlineVertices do
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gfx.LineTo(self._outlineVertices[i].x, self._outlineVertices[i].y)
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end
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gfx.ClosePath()
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gfx.FillColor(fillColor:components())
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gfx.Fill()
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gfx.Restore()
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end
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function Radar:drawAttributes()
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---@cast self Radar
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gfx.Save()
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gfx.LoadSkinFont("contb.ttf")
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gfx.FontSize(21)
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for i = 1, #self._attributePositions do
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local attrPos = self._attributePositions[i]
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for j = 1, #attrPos do
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local pos = attrPos[j]
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local attr = Radar.ATTRIBUTES[i][j]
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gfx.TextAlign(attr.align)
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renderOutlinedText(pos, string.upper(attr.text), 1, attr.color)
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end
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end
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gfx.Restore()
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end
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---Draw shaded radar mesh
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---
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---Bug: ForceRender resets every transformation, you need to re-setup view transform afterwards.
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---ForceRender also resets the gfx stack, USC will crash if you try to call gfx.Restore(),
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---make sure the gfx stack is clean before calling radar:drawRadarMesh()
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function Radar:drawRadarMesh()
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---@cast self Radar
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local scaleFact = {
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self._graphdata.notes,
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self._graphdata.peak,
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self._graphdata.tsumami,
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self._graphdata.tricky,
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self._graphdata.handtrip,
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self._graphdata.onehand,
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}
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local colorMax = ColorRGBA.new(255, 12, 48, 230) -- magenta-ish
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local colorCenter = ColorRGBA.new(112, 119, 255, 230) -- light blue-ish purple
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-- Calculate the maximum size based on the constraint
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local maxSize = self.RADIUS * self.scale
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local maxLineLength = maxSize * maxScaleFactor
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self._hexagonMesh:SetParam("maxSize", maxLineLength + .0)
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-- Set the color of the hexagon
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self._hexagonMesh:SetParamVec4("colorMax", colorMax:componentsFloat())
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self._hexagonMesh:SetParamVec4("colorCenter", colorCenter:componentsFloat())
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-- Set the primitive type to triangles
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self._hexagonMesh:SetPrimitiveType(self._hexagonMesh.PRIM_TRIFAN)
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-- Calculate the vertices of the hexagon
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local sides = #Radar.ATTRIBUTES
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local vertices = {}
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table.insert(vertices, {{0, 0}, {0, 0}})
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for i = 0, sides do
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local j = i % sides + 1
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local angle = i * self._angleStep - self._initRotation
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--local angle = math.rad(60 * (i-1)) + rotationAngle
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local scale = scaleFact[j]
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local lineLength = maxSize * scale
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local px = lineLength * math.cos(angle)
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local py = lineLength * math.sin(angle)
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table.insert(vertices, {{px, py}, {0, 0}})
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end
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-- Set the hexagon's vertices
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self._hexagonMesh:SetData(vertices)
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self._hexagonMesh:Draw()
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-- YOU! You are the reason for all my pain!
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gfx.ForceRender()
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end
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--NOTE: THIS IS BUGGY, ForceRender fucks up so many things, call the individual draw functions at top level
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function Radar:drawGraph()
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---@cast self Radar
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game.Log("Radar:drawGraph() SHOULD NOT BE CALLED", game.LOGGER_WARNING)
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gfx.Save()
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gfx.Reset()
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gfx.ResetScissor()
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Dim.updateResolution()
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Dim.transformToScreenSpace()
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gfx.FontSize(28)
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gfx.Translate(self.pos.x, self.pos.y)
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gfx.Scale(self.scale, self.scale)
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local strokeColor = ColorRGBA.new(255, 255, 255, 100)
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local fillColor = ColorRGBA.new(0, 0, 0, 191)
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self:drawBackground(fillColor)
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self:drawOutline(3, strokeColor)
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self:drawRadarMesh()
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self:drawRadialTicks(strokeColor)
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self:drawAttributes()
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local pos = Point2D.new(self.pos:coords())
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pos.y = pos.y - self.RADIUS
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--drawDebugText(pos, self._graphdata)
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gfx.Restore()
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--NOTE: Bug workaround: forcerender resets every transformation, re-setup view transform
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Dim.transformToScreenSpace()
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end
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---Compute radar attribute values from ksh
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---@param info string # chart directory path
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---@param dif string # chart name without extension
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function Radar:updateGraph(info, dif)
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---@cast self Radar
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--local pattern = "(.*[\\/])"
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--local extractedSubstring = info:match(pattern)
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--local txtFilePath = extractedSubstring .. "radar\\" .. dif .. ".txt"
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--local song = io.open(txtFilePath, "r")
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local fullPath = info.."/"..dif..".ksh"
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local song = io.open(fullPath)
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game.Log('Reading chart data from "'..fullPath..'"', game.LOGGER_DEBUG)
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game.Log(song and "file open" or "file not found", game.LOGGER_DEBUG)
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if song then
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local chartData = song:read("*all")
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song:close()
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local notesCount, knobCount, oneHandCount, handTripCount = 0, 0, 0, 0
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local chartLineCount = 0
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local notesValue = 0
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local peakValue = 0
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local tsumamiValue = 0
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local trickyValue = 0
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local totalMeasures = 0
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local lastNotes = {}
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local lastFx = {}
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local measureLength = 0
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---@cast chartData string
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for line in chartData:gmatch("[^\r\n]+") do
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-- <bt-lanes x 4>|<fx-lanes x 2>|<laser-lanes x 2><lane-spin (optional)>
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--game.Log(line, game.LOGGER_DEBUG)
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local patternBt = "([012][012][012][012])"
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local patternFx = "([012ABDFGHIJKLPQSTUVWX][012ABDFGHIJKLPQSTUVWX])"
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local patternLaser = "([%-:%dA-Za-o][%-:%dA-Za-o])"
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local patternLaneSpin = "([@S][%(%)<>]%d+)" -- optional
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local pattern = patternBt.."|"..patternFx.."|"..patternLaser
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-- match line format
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local noteType, fxType, laserType = line:match(pattern)
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local laneSpin = line:match(patternLaneSpin)
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if noteType and fxType and laserType then
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chartLineCount = chartLineCount + 1
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-- convert strings to array, to be easily indexable
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noteType = {noteType:match("([012])([012])([012])([012])")}
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fxType = {fxType:match("([012ABDFGHIJKLPQSTUVWX])([012ABDFGHIJKLPQSTUVWX])")}
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laserType = {laserType:match("([%-:%dA-Za-o])([%-:%dA-Za-o])")}
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---@cast noteType string[]
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---@cast fxType string[]
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---@cast laserType string[]
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-- parse notes
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local function isNewNote(idx, note)
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if note == "2" and lastNotes[idx] ~= note then
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-- a new hold note
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return true
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end
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if note == "1" then
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-- a chip
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return true
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end
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end
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for noteIdx, note in ipairs(noteType) do
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if isNewNote(noteIdx, note) then
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notesCount = notesCount + 1
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end
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end
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-- parse fx
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local function isNewFx(idx, fx)
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if fx:match("[1ABDFGHIJKLPQSTUVWX]") and lastFx[idx] ~= fx then
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-- a new hold note
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return true
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end
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if fx == "2" then
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-- a chip
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return true
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end
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end
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for fxIdx, fx in ipairs(fxType) do
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if isNewFx(fxIdx, fx) then
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notesCount = notesCount + 1
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end
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end
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-- parse laser
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for _, laser in ipairs(laserType) do
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if laser ~= "-" then
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knobCount = knobCount + 1
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end
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end
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-- figure out one-handed notes (there's a BT or FX while a hand is manipulating a knob)
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-- also try to figure out cross-handed notes (one-handed notes, but on the same side as knob)
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local function countBtFx()
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local count = 0
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for noteIdx, note in ipairs(noteType) do
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if isNewNote(noteIdx, note) then
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count = count + 1
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end
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end
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for fxIdx, fx in ipairs(fxType) do
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if isNewFx(fxIdx, fx) then
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count = count + 1
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end
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end
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return count
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end
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---@param side "left"|"right"
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local function countSide(side)
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local count = 0
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local notes = {}
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local fx = ""
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if side == "left" then
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notes = {noteType[1], noteType[2]}
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fx = fxType[1]
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if isNewFx(1, fx) then
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count = count + 1
|
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end
|
|
elseif side == "right" then
|
|
notes = {noteType[3], noteType[4]}
|
|
fx = fxType[2]
|
|
if isNewFx(2, fx) then
|
|
count = count + 1
|
|
end
|
|
else
|
|
game.Log("countSide: Invalid side parameter", game.LOGGER_ERROR)
|
|
return 0
|
|
end
|
|
for noteIdx, note in ipairs(notes) do
|
|
if isNewNote(noteIdx, note) then
|
|
count = count + 1
|
|
end
|
|
end
|
|
return count
|
|
end
|
|
if laserType[1] ~= "-" and laserType[2] == "-" then
|
|
oneHandCount = oneHandCount + countBtFx()
|
|
handTripCount = handTripCount + countSide("left")
|
|
end
|
|
if laserType[1] == "-" and laserType[2] ~= "-" then
|
|
oneHandCount = oneHandCount + countBtFx()
|
|
handTripCount = handTripCount + countSide("right")
|
|
end
|
|
|
|
lastNotes = noteType
|
|
lastFx = fxType
|
|
|
|
measureLength = measureLength + 1
|
|
end
|
|
|
|
if line == "--" then
|
|
-- end of measure
|
|
measureLength = math.max(1, measureLength)
|
|
|
|
local relativeMeasureLength = measureLength / 192
|
|
|
|
-- calculate peak density
|
|
local peak = (notesCount / 6) / relativeMeasureLength
|
|
peakValue = math.max(peakValue, peak)
|
|
--[[
|
|
local debuglog = {
|
|
measureLength = measureLength,
|
|
notesCount = notesCount,
|
|
relativeMeasureLength = relativeMeasureLength,
|
|
peak = peak,
|
|
}
|
|
for k, v in pairs(debuglog) do
|
|
game.Log(k..": "..v, game.LOGGER_DEBUG)
|
|
end
|
|
]]
|
|
|
|
-- cumulate "time" spent operating the knobs
|
|
local tsumami = (knobCount / 2) / relativeMeasureLength
|
|
tsumamiValue = tsumamiValue + tsumami
|
|
|
|
measureLength = 0
|
|
notesCount = 0
|
|
|
|
-- cumulate peak values (used to average notes over the length of the song)
|
|
notesValue = notesValue + peak
|
|
|
|
totalMeasures = totalMeasures + 1
|
|
end
|
|
|
|
local beat = line:match("beat=(%d+/%d+)")
|
|
if beat then
|
|
beat = {beat:match("(%d+)/(%d+)")}
|
|
end
|
|
|
|
--BUG: This is not correct, it needs to account for effect length
|
|
local function isTricky()
|
|
local tricks = {
|
|
"beat",
|
|
"stop",
|
|
"zoom_top",
|
|
"zoom_bottom",
|
|
"zoom_side",
|
|
"center_split",
|
|
}
|
|
return Util.any(tricks, function(e) return line:match("e") end)
|
|
end
|
|
if laneSpin or isTricky() then
|
|
trickyValue = trickyValue + 1
|
|
end
|
|
end
|
|
|
|
local graphValues = {
|
|
notes = notesValue / totalMeasures,
|
|
peak = peakValue,
|
|
tsumami = tsumamiValue / totalMeasures,
|
|
tricky = trickyValue,
|
|
handtrip = handTripCount,
|
|
onehand = oneHandCount,
|
|
}
|
|
|
|
game.Log("graphValues", game.LOGGER_DEBUG)
|
|
for k,v in pairs(graphValues) do
|
|
game.Log(k..": "..v, game.LOGGER_DEBUG)
|
|
end
|
|
|
|
local calibration = {
|
|
notes = 10,
|
|
peak = 48,
|
|
tsumami = 20000,
|
|
tricky = 128,
|
|
handtrip = 300,
|
|
onehand = 300,
|
|
}
|
|
|
|
for key, factor in pairs(calibration) do
|
|
-- Apply the scaling factor to each value
|
|
self._graphdata[key] = graphValues[key] / factor
|
|
|
|
-- Limit to maximum scale factor
|
|
self._graphdata[key] = math.min(self._graphdata[key], maxScaleFactor)
|
|
end
|
|
|
|
game.Log("_graphdata", game.LOGGER_DEBUG)
|
|
for k,v in pairs(self._graphdata) do
|
|
game.Log(k..": "..v, game.LOGGER_DEBUG)
|
|
end
|
|
end
|
|
end
|
|
|
|
return Radar
|