Module:MOS tunings: Difference between revisions

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local p = {}
local et = require("Module:ET")
local jira = require("Module:JI ratios")
local mos = require("Module:MOS")
local mos = require("Module:MOS")
local tamnams = require("Module:TAMNAMS")
local tamnams = require("Module:TAMNAMS")
local et = require("Module:ET")
local tip = require("Module:Template input parse")
local yesno = require("Module:Yesno")
local yesno = require("Module:Yesno")
local tip = require("Module:Template input parse")
local p = {}


-- Rewritten/simplified module replacement for Module:MOS degrees
-- Rewritten/simplified module replacement for Module:MOS degrees
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-- TODO:
-- TODO:
-- - Links
-- - Relegate JI ratio input to sorting entered ratios; this is to decouple
-- - Text align
--   ratio search from ratio sorting/filtering.
-- - JI ratio input??
-- - Diatonic interval category lookup?
-- - Diatonic interval category lookup?!!


-- Helper function
-- Helper function
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function p.capitalize_first(text)
function p.capitalize_first(text)
return string.upper(string.sub(text, 1, 1)) .. string.sub(text, 2, -1)
return string.upper(string.sub(text, 1, 1)) .. string.sub(text, 2, -1)
end
-- Helper function
-- "Rounds" step ratios up to the nearest named ratio
function p.step_ratio_ceil(step_ratio)
local hardness = step_ratio[1] / step_ratio[2]
local rounded_step_ratio = nil
if hardness > 1/1 and hardness <= 4/3 then
rounded_step_ratio = {4,3}
elseif hardness > 4/3 and hardness <= 3/2 then
rounded_step_ratio = {3,2}
elseif hardness > 3/2 and hardness <= 5/3 then
rounded_step_ratio = {5,3}
elseif hardness > 5/3 and hardness <= 2/1 then
rounded_step_ratio = {2,1}
elseif hardness > 2/1 and hardness <= 5/2 then
rounded_step_ratio = {5,2}
elseif hardness > 5/2 and hardness <= 3/1 then
rounded_step_ratio = {3,1}
elseif hardness > 3/1 and hardness <= 4/1 then
rounded_step_ratio = {4,1}
elseif hardness > 4/1 and hardness <= 1/0 then
rounded_step_ratio = {1,0}
end
return rounded_step_ratio
end
-- Helper function
-- "Rounds" step ratios down to the nearest named ratio
function p.step_ratio_floor(step_ratio)
local hardness = step_ratio[1] / step_ratio[2]
local rounded_step_ratio = nil
if hardness >= 1/1 and hardness < 4/3 then
rounded_step_ratio = {1,1}
elseif hardness >= 4/3 and hardness < 3/2 then
rounded_step_ratio = {4,3}
elseif hardness >= 3/2 and hardness < 5/3 then
rounded_step_ratio = {3,2}
elseif hardness >= 5/3 and hardness < 2/1 then
rounded_step_ratio = {5,3}
elseif hardness >= 2/1 and hardness < 5/2 then
rounded_step_ratio = {2,1}
elseif hardness >= 5/2 and hardness < 3/1 then
rounded_step_ratio = {5,2}
elseif hardness >= 3/1 and hardness < 4/1 then
rounded_step_ratio = {3,1}
elseif hardness >= 4/1 and hardness < 1/0 then
rounded_step_ratio = {4,1}
end
return rounded_step_ratio
end
end


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and step_ratios[2][1] == 2 and step_ratios[2][2] == 1
and step_ratios[2][1] == 2 and step_ratios[2][2] == 1
and step_ratios[3][1] == 3 and step_ratios[3][2] == 1 then
and step_ratios[3][1] == 3 and step_ratios[3][2] == 1 then
return "Simple Tunings", {{2,1}, {3,1}, {3,2}}
return "Simple Tunings", {{2, 1}, {3, 1}, {3, 2}}
end
end
end
end
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-- hardness. If there are zero step ratios, then return "Tunings"
-- hardness. If there are zero step ratios, then return "Tunings"
if #step_ratios > 1 then
if #step_ratios > 1 then
local lower_ratio = p.step_ratio_floor(step_ratios[1])
local lower_ratio = step_ratios[1]
local upper_ratio = p.step_ratio_ceil (step_ratios[#step_ratios])
local upper_ratio = step_ratios[#step_ratios]
-- If one ratio corresponds to the endpoint of a named hardness range
-- but the other ratio exceeds that of a smaller range, default to the
-- largest range that would accommodate it.
-- 2:1 to (L:s > 3:1) = hard-of-basic
-- 4:1 and up = ultrahard
-- (L:s < 3:2) to 2:1 = soft-of-basic
-- 4:3 and lower = ultrasoft
if (lower_ratio[1]/lower_ratio[2] == 2/1 and upper_ratio[1]/upper_ratio[2] > 3/1)
or lower_ratio[1]/lower_ratio[2] == 4/1 then
upper_ratio = {1,0}
elseif (upper_ratio[1]/upper_ratio[2] == 2/1 and lower_ratio[1]/lower_ratio[2] < 3/1)
or upper_ratio[1]/upper_ratio[2] == 4/3 then
lower_ratio = {1,1}
end
 
step_ratio_range = tamnams.lookup_step_ratio_range(lower_ratio, upper_ratio)
step_ratio_range = tamnams.find_step_ratio_range_for_ratio_pair(lower_ratio, upper_ratio)
if step_ratio_range ~= nil then
if step_ratio_range ~= nil then
step_ratio_range = p.capitalize_first(step_ratio_range) .. " Tunings"
step_ratio_range = p.capitalize_first(step_ratio_range) .. " Tunings"
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return step_ratio_range, step_ratios
return step_ratio_range, step_ratios
end
-- Preprocess step ratios
function p.preprocess_ji_ratios(input_mos, modal_union, step_ratios, ji_ratios, tolerance)
-- Calculate the avegrage step ratio
local avg_step_ratio = {0, 0}
for i = 1, #step_ratios do
avg_step_ratio[1] = avg_step_ratio[1] + step_ratios[i][1]
avg_step_ratio[2] = avg_step_ratio[2] + step_ratios[i][2]
end
avg_step_ratio[1] = avg_step_ratio[1] / #step_ratios
avg_step_ratio[2] = avg_step_ratio[2] / #step_ratios
-- Normalize step ratio to be x:1, accounting for 1:0
if avg_step_ratio[2] ~= 0 then
avg_step_ratio[1] = avg_step_ratio[1] / avg_step_ratio[2]
avg_step_ratio[2] = avg_step_ratio[2] / avg_step_ratio[2]
else
avg_step_ratio[1] = 1
avg_step_ratio[2] = 0
end
-- Calculate the tolerance, the range in which ratios can be accepted +/-
-- from an et-step. (ET may be a non-integer value, since the L:s ratio is
-- normalized to x:1.)
-- Tolerance is how many cents away from an et-step a ratio can be. This is
-- by default 30% of the small step size, and maxes out at 30 cent. Can be
-- overridden with a custom tolerance value.
local steps_in_et = input_mos.nL * avg_step_ratio[1] + input_mos.ns * avg_step_ratio[2]
local tolerance = tolerance or math.min((mos.equave_to_cents(input_mos) / steps_in_et) * 0.30, 30)
-- Calculate the cent values for each interval in the modal union
local cent_values = {}
for i = 1, #modal_union do
table.insert(cent_values, mos.interval_to_cents(modal_union[i], input_mos, avg_step_ratio))
end
local sorted_ratios = jira.sort_by_closeness_to_cent_values(ji_ratios, cent_values, tolerance)
return sorted_ratios
end
end


-- Main function
-- Main function
function p._mos_tunings(input_mos, mos_prefix, mos_abbrev, step_ratios)
function p._mos_tunings(input_mos, mos_prefix, mos_abbrev, step_ratios, ji_ratios, tolerance, footnotes, is_collapsed)
local input_mos = input_mos or mos.new(5,2)
local input_mos = input_mos or mos.new(5,2)
local mos_prefix = mos_prefix or "mos"
local mos_prefix = mos_prefix or "mos"
local mos_abbrev = mos_abbrev or "m"
local mos_abbrev = mos_abbrev or "m"
local step_ratios = step_ratios or { {2,1}, {3,1}, {3,2} }
local step_ratios = step_ratios or {{2, 1}, {3, 1}, {3, 2}}
local ji_ratios = ji_ratios or {}
local tolerance = tolerance or nil
local is_collapsed = is_collapsed == true
local footnotes = footnotes or "(footnotes here)"
local modal_union = mos.modal_union(input_mos)
-- Scalesig
local scale_sig = mos.as_string(input_mos)
local scale_sig = mos.as_string(input_mos)
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local step_ratio_range = ""
local step_ratio_range = ""
step_ratio_range, step_ratios = p.preprocess_step_ratios(step_ratios)
step_ratio_range, step_ratios = p.preprocess_step_ratios(step_ratios)
-- Preprocess JI ratios
local modal_union = mos.modal_union(input_mos)
--local sorted_ji_ratios, search_info = p.preprocess_ji_ratios(input_mos, modal_union, step_ratios, ji_ratios, tolerance)
-- Create table
-- Create table
local result = "{| class=\"wikitable sortable right-all left-1 left-2\"\n"
local result = "{| class=\"wikitable sortable right-all left-1 left-2 mw-collapsible" .. (is_collapsed and " mw-collapsed\"\n" or "\"\n")
-- Table caption
-- Table caption
result = result .. string.format("|+ style=\"font-size: 105%%; white-space: nowrap;\" | %s of %s\n", step_ratio_range, scale_sig)
result = result .. "|+ style=\"font-size: 105%; white-space: nowrap;\" | " .. string.format("%s of %s\n", step_ratio_range, scale_sig)
.. "|-\n"
-- First row of headers
-- First row of headers
-- First two headers span two rows
-- First two headers span two rows
result = result .. "! rowspan=\"2\" class=\"unsortable\" | Scale degree\n"
result = result
result = result .. "! rowspan=\"2\" class=\"unsortable\" | Abbrev.\n"
.. "! rowspan=\"2\" class=\"unsortable\" | Scale degree\n"
.. "! rowspan=\"2\" class=\"unsortable\" | Abbrev.\n"
-- Headers for tunings; these span two cols
-- Headers for tunings; these span two cols
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end
end
local et_as_string = et.as_string(mos.mos_to_et(input_mos, step_ratios[i]))
local et_as_string = et.as_string(mos.as_et(input_mos, step_ratios[i]))
local header_text = string.format("%s<br>[[%s]]", step_ratio_as_text, et_as_string)
local header_text = string.format("%s<br />[[%s]]", step_ratio_as_text, et_as_string)
result = result .. string.format("! colspan=\"2\" | %s\n", header_text)
result = result .. string.format("! colspan=\"2\" | %s\n", header_text)
end
end
-- Headers for JI ratios; this spans two rows
-- Commented out, pending rewrite
--[[
if #ji_ratios ~= 0 then
result = result .. "! rowspan=\"2\" class=\"unsortable\" | Approx. ratios*\n"
end
]]--
result = result .. "|-\n"
result = result .. "|-\n"
-- Second row of headers
-- Second row of headers
for i = 1, #step_ratios do
for i = 1, #step_ratios do
result = result .. "! Steps\n"
result = result .. "! style=\"border-right: none;\" class=\"unsortable\" | Steps\n"
result = result .. "! Cents\n"
result = result .. "! style=\"border-left: none; text-align: right;\" | ¢\n"
end
end
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result = result
result = result
.. "|-\n"
.. "|-\n"
.. string.format("| %s || %s", degree_name, degree_abbrev)
.. string.format("| %s\n", degree_name)
.. string.format("| %s\n", degree_abbrev)
-- Add cells for each interval's tunings
-- Add cells for each interval's tunings
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result = result
result = result
.. " "
--.. string.format("\n| %s\\%s\n| %.1f", step_count, input_mos.nL * step_ratio[1] + input_mos.ns * step_ratio[2], cents)
.. string.format("|| %s\\%s || %.1f", step_count, input_mos.nL * step_ratio[1] + input_mos.ns * step_ratio[2], cents)
.. string.format("| style=\"border-right: none;\" | %s\\%s\n", step_count, input_mos.nL * step_ratio[1] + input_mos.ns * step_ratio[2])
.. string.format("| style=\"border-left: none;\" | %.1f\n", cents)
end
-- Add cells for JI ratios
--[[
-- Commented out, pending rewrite
if #ji_ratios ~= 0 then
-- Ratios link to their respective pages, and are comma-delimited.
local ratios_as_text = jira.ratios_as_string(sorted_ji_ratios[i], true, ",&nbsp;")
result = result .. "| style=\"text-align: left;\" | " .. string.format("%s\n", ratios_as_text)
end
end
result = result .. "\n"
]]--
end
end
-- End of table
-- End of table, plus footnotes
result = result .. "|}"
result = result .. "|}"
--[[
-- Commented out, pending rewrite
if #ji_ratios ~= 0 then
-- Make footnote text smaller than the rest of the text to avoid confusion with paragraph text
result = result .. string.format("<span style=\"font-size: 0.75em;\">&#42; %s</span>", footnotes)
end
]]--
return result
return result
end
-- Parse step ratios passed into template
-- If the unparsed string is blank, default to the simple tunings.
-- If the unparsed string is any of the step ratio range names, list the named
-- ratios that fall within that range.
-- if the unparsed string is blank, don't show any ratios.
-- If the ratios is a list, parse it.
function p.parse_step_ratios(unparsed)
local parsed = {}
local lookup_table = {
["Central Spectrum"] = {{4, 3}, {3, 2}, {5, 3}, {2, 1}, {5, 2}, {3, 1}, {4, 1}},
["Simple Tunings"]  = {{2, 1}, {3, 1}, {3, 2}},
["Soft-of-basic"]    = {{4, 3}, {3, 2}, {2, 1}},
["Ultrasoft"]        = {{6, 5}, {5, 4}, {4, 3}},
["Parasoft"] = {{4, 3}, {7, 5}, {3, 2}},
["Quasisoft"]        = {{3, 2}, {8, 5}, {5, 3}},
["Minisoft"]        = {{5, 3}, {7, 4}, {2, 1}},
["Hyposoft"]        = {{3, 2}, {5, 3}, {2, 1}},
["Hypohard"]        = {{2, 1}, {5, 2}, {3, 1}},
["Minihard"]        = {{2, 1}, {7, 3}, {5, 2}},
["Quasihard"]        = {{5, 2}, {8, 3}, {3, 1}},
["Parahard"]        = {{3, 1}, {7, 2}, {4, 1}},
["Ultrahard"]        = {{4, 1}, {5, 1}, {6, 1}},
["Hard-of-basic"]    = {{2, 1}, {3, 1}, {4, 1}},
}
if unparsed == "" then
parsed = lookup_table["Simple Tunings"]
elseif unparsed == "NONE" then
parsed = {}
else
parsed = lookup_table[unparsed] or tip.parse_numeric_pairs(unparsed)
end
return parsed
end
-- Parse JI ratios passed into template
-- If the unparsed string corresponds to a list of JI ratios ("a/b; c/d; e/f"),
-- then parse it as a list of ratios. If it's not that, parse it as search
-- args. If the text is "NONE", then there should be no ratios passed in.
-- If the unparsed string is an empty string, return nil. (This is so the
-- wrapper function can go by default search args.)
function p.parse_ji_ratios(unparsed, equave)
local ratios = nil
local search_args = nil
if unparsed == "" then
search_args = {["Int Limit"] = 50, ["Tenney Height"] = 8; ["Complements Only"] = true} -- Defualt search args if no args were passed in
ratios = jira.search_by_args_within_equave(equave, search_args)
elseif unparsed == "NONE" then
search_args = {}
ratios = {}
elseif string.match(unparsed, "Int Limit:") then
search_args = jira.parse_search_args(unparsed) -- Search requires at the absolute least an int limit, so see if there's "Int Limit"
ratios = jira.search_by_args_within_equave(equave, search_args)
else
search_args = {}
ratios = jira.parse_ratios(unparsed)
end
return ratios, jira.search_footnotes(search_args)
end
end


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function p.mos_tunings(frame)
function p.mos_tunings(frame)
-- Get params
-- Get params
local scalesig   = frame.args["Scale Signature"]
local scalesig     = frame.args["Scale Signature"]
local mos_prefix = frame.args["MOS Prefix"]
local input_mos    = mos.parse(scalesig)
local mos_abbrev = frame.args["MOS Abbrev"]
local mos_prefix   = tamnams.verify_prefix(input_mos, frame.args["MOS Prefix"])
local collapsed  = yesno(frame.args["Collapsed"], false) -- Currently does nothing
local mos_abbrev   = tamnams.verify_abbrev(input_mos, frame.args["MOS Abbrev"])
local step_ratios = tip.parse_numeric_pairs(frame.args["Step Ratios"]) or {{2,1}, {3,1}, {3,2}}
local is_collapsed = yesno(frame.args["Collapsed"], false)
local step_ratios = p.parse_step_ratios(frame.args["Step Ratios"])
local tolerance    = tonumber(frame.args["Tolerance"])
local debugg      = yesno(frame.args["debug"])
-- Parse scalesig
--local ji_ratios, footnotes = p.parse_ji_ratios(frame.args["JI Ratios"], input_mos.equave)
local input_mos = mos.parse(scalesig)
 
local result = p._mos_tunings(input_mos, mos_prefix, mos_abbrev, step_ratios, ji_ratios, tolerance, footnotes, is_collapsed)
if debugg == true then
result = "<syntaxhighlight lang=\"wikitext\">" .. result .. "</syntaxhighlight>"
end
-- Verify name/prefix/abbrev
return frame:preprocess(result)
mos_prefix = tamnams.verify_prefix(input_mos, mos_prefix)
mos_abbrev = tamnams.verify_abbrev(input_mos, mos_abbrev)
 
return p._mos_tunings(input_mos, mos_prefix, mos_abbrev, step_ratios)
end
end


function p.tester()
function p.tester()
local range, ratios = p.preprocess_step_ratios({ {7,1}, {3,1}, {2,1} })
local range, ratios = p.preprocess_step_ratios({{7, 1}, {3, 1}, {2, 1}})
local input_mos = mos.parse("9L 4s<7/2>")
return range
--return p.preprocess_ji_ratios(input_mos, mos.modal_union(input_mos), {{2,1}, {3,2}, {5,3}}, ji_ratios)
--return ji_ratios
return p._mos_tunings(input_mos)
end
end


return p
return p