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157 lines
6.8 KiB
157 lines
6.8 KiB
using RELOG
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using Test
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using HiGHS
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using JuMP
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function model_build_test()
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instance = RELOG.parsefile(fixture("simple.json"))
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model = RELOG.build_model(instance, optimizer = HiGHS.Optimizer, variable_names = true)
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y = model[:y]
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z_disp = model[:z_disp]
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z_input = model[:z_input]
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z_em_tr = model[:z_em_tr]
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z_em_plant = model[:z_em_plant]
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x = model[:x]
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obj = objective_function(model)
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# print(model)
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@test obj.terms[y["L1", "C3", "P4", 1]] == (
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111.118 * 0.015 # transportation
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- 12.0 # revenue
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)
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@test obj.terms[y["C1", "L1", "P2", 4]] == (
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333.262 * 0.015 + # transportation
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0.25 + # center collection cost
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5.0 # plant operating cost
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)
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@test obj.terms[z_disp["C1", "P2", 1]] == 0.23
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@test obj.constant == (
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150 * 4 * 3 # center operating cost
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)
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@test obj.terms[z_disp["L1", "P4", 2]] == 0.86
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@test obj.terms[x["L1", 1]] == (
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-100.0 + # opening cost
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300 # fixed operating cost
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)
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@test obj.terms[x["L1", 2]] == (
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-50.0 + # opening cost
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300 # fixed operating cost
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)
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@test obj.terms[x["L1", 3]] == (
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-25.0 + # opening cost
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300 # fixed operating cost
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)
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@test obj.terms[x["L1", 4]] == (
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475.0 + # opening cost
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300 # fixed operating cost
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)
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# Variables: Transportation emissions
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@test haskey(z_em_tr, ("CO2", "L1", "C3", "P4", 1))
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@test haskey(z_em_tr, ("CH4", "L1", "C3", "P4", 1))
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@test haskey(z_em_tr, ("CO2", "C2", "L1", "P1", 1))
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@test haskey(z_em_tr, ("CH4", "C2", "L1", "P1", 1))
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# Variables: Plant emissions
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@test haskey(z_em_plant, ("CO2", "L1", 1))
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@test haskey(z_em_plant, ("CO2", "L1", 2))
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@test haskey(z_em_plant, ("CO2", "L1", 3))
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@test haskey(z_em_plant, ("CO2", "L1", 4))
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# Plants: Definition of total plant input
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@test repr(model[:eq_z_input]["L1", 1]) ==
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"eq_z_input[L1,1] : -y[C2,L1,P1,1] - y[C1,L1,P2,1] + z_input[L1,1] = 0"
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# Plants: Must meet input mix
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@test repr(model[:eq_input_mix]["L1", "P1", 1]) ==
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"eq_input_mix[L1,P1,1] : y[C2,L1,P1,1] - 0.953 z_input[L1,1] = 0"
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@test repr(model[:eq_input_mix]["L1", "P2", 1]) ==
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"eq_input_mix[L1,P2,1] : y[C1,L1,P2,1] - 0.047 z_input[L1,1] = 0"
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# Plants: Calculate amount produced
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@test repr(model[:eq_z_prod]["L1", "P3", 1]) ==
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"eq_z_prod[L1,P3,1] : z_prod[L1,P3,1] - 0.25 z_input[L1,1] = 0"
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@test repr(model[:eq_z_prod]["L1", "P4", 1]) ==
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"eq_z_prod[L1,P4,1] : z_prod[L1,P4,1] - 0.12 z_input[L1,1] = 0"
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# Plants: Produced material must be sent or disposed
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@test repr(model[:eq_balance]["L1", "P3", 1]) ==
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"eq_balance[L1,P3,1] : z_prod[L1,P3,1] - z_disp[L1,P3,1] = 0"
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@test repr(model[:eq_balance]["L1", "P4", 1]) ==
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"eq_balance[L1,P4,1] : -y[L1,C3,P4,1] + z_prod[L1,P4,1] - z_disp[L1,P4,1] = 0"
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# Plants: Capacity limit
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@test repr(model[:eq_capacity]["L1", 1]) ==
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"eq_capacity[L1,1] : -100 x[L1,1] + z_input[L1,1] ≤ 0"
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# Plants: Disposal limit
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@test repr(model[:eq_disposal_limit]["L1", "P4", 1]) ==
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"eq_disposal_limit[L1,P4,1] : z_disp[L1,P4,1] ≤ 1000"
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@test ("L1", "P3", 1) ∉ keys(model[:eq_disposal_limit])
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# Plants: Plant remains open
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@test repr(model[:eq_keep_open]["L1", 4]) ==
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"eq_keep_open[L1,4] : -x[L1,3] + x[L1,4] ≥ 0"
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@test repr(model[:eq_keep_open]["L1", 1]) == "eq_keep_open[L1,1] : x[L1,1] ≥ 0"
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# Plants: Building period
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@test ("L1", 1) ∉ keys(model[:eq_building_period])
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@test repr(model[:eq_building_period]["L1", 2]) ==
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"eq_building_period[L1,2] : -x[L1,1] + x[L1,2] ≤ 0"
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# Centers: Definition of total center input
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@test repr(model[:eq_z_input]["C1", 1]) ==
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"eq_z_input[C1,1] : -y[C2,C1,P1,1] + z_input[C1,1] = 0"
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# Centers: Calculate amount collected
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@test repr(model[:eq_z_collected]["C1", "P2", 1]) ==
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"eq_z_collected[C1,P2,1] : -0.2 z_input[C1,1] + z_collected[C1,P2,1] = 100"
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@test repr(model[:eq_z_collected]["C1", "P2", 2]) ==
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"eq_z_collected[C1,P2,2] : -0.25 z_input[C1,1] - 0.2 z_input[C1,2] + z_collected[C1,P2,2] = 50"
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@test repr(model[:eq_z_collected]["C1", "P2", 3]) ==
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"eq_z_collected[C1,P2,3] : -0.12 z_input[C1,1] - 0.25 z_input[C1,2] - 0.2 z_input[C1,3] + z_collected[C1,P2,3] = 0"
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@test repr(model[:eq_z_collected]["C1", "P2", 4]) ==
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"eq_z_collected[C1,P2,4] : -0.12 z_input[C1,2] - 0.25 z_input[C1,3] - 0.2 z_input[C1,4] + z_collected[C1,P2,4] = 0"
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# Centers: Collected products must be disposed or sent
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@test repr(model[:eq_balance]["C1", "P2", 1]) ==
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"eq_balance[C1,P2,1] : -y[C1,L1,P2,1] - z_disp[C1,P2,1] + z_collected[C1,P2,1] = 0"
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@test repr(model[:eq_balance]["C1", "P3", 1]) ==
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"eq_balance[C1,P3,1] : -z_disp[C1,P3,1] + z_collected[C1,P3,1] = 0"
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# Centers: Disposal limit
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@test repr(model[:eq_disposal_limit]["C1", "P2", 1]) ==
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"eq_disposal_limit[C1,P2,1] : z_disp[C1,P2,1] ≤ 0"
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@test ("C1", "P3", 1) ∉ keys(model[:eq_disposal_limit])
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# Global disposal limit
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@test repr(model[:eq_disposal_limit]["P1", 1]) ==
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"eq_disposal_limit[P1,1] : z_disp[C2,P1,1] ≤ 1"
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@test repr(model[:eq_disposal_limit]["P2", 1]) ==
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"eq_disposal_limit[P2,1] : z_disp[C1,P2,1] ≤ 2"
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@test repr(model[:eq_disposal_limit]["P3", 1]) ==
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"eq_disposal_limit[P3,1] : z_disp[L1,P3,1] + z_disp[C1,P3,1] ≤ 5"
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@test ("P4", 1) ∉ keys(model[:eq_disposal_limit])
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# Products: Transportation emissions
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@test repr(model[:eq_emission_tr]["CH4", "L1", "C3", "P4", 1]) ==
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"eq_emission_tr[CH4,L1,C3,P4,1] : -0.333354 y[L1,C3,P4,1] + z_em_tr[CH4,L1,C3,P4,1] = 0"
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# Plants: Plant emissions
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@test repr(model[:eq_emission_plant]["CO2", "L1", 1]) ==
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"eq_emission_plant[CO2,L1,1] : -0.1 y[C2,L1,P1,1] - 0.1 y[C1,L1,P2,1] + z_em_plant[CO2,L1,1] = 0"
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# Objective function: Emissions penalty costs
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@test obj.terms[z_em_plant["CO2", "L1", 1]] == 50.0 # CO2 penalty at time 1
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@test obj.terms[z_em_plant["CO2", "L1", 2]] == 55.0 # CO2 penalty at time 2
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@test obj.terms[z_em_plant["CO2", "L1", 3]] == 60.0 # CO2 penalty at time 3
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@test obj.terms[z_em_plant["CO2", "L1", 4]] == 65.0 # CO2 penalty at time 4
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@test obj.terms[z_em_tr["CO2", "L1", "C3", "P4", 1]] == 50.0 # CO2 transportation penalty at time 1
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@test obj.terms[z_em_tr["CH4", "L1", "C3", "P4", 1]] == 1200.0 # CH4 transportation penalty at time 1
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# Global emissions limit constraints
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@test repr(model[:eq_emission_limit]["CO2", 1]) ==
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"eq_emission_limit[CO2,1] : z_em_tr[CO2,C2,L1,P1,1] + z_em_tr[CO2,C2,C1,P1,1] + z_em_tr[CO2,C1,L1,P2,1] + z_em_tr[CO2,L1,C3,P4,1] + z_em_plant[CO2,L1,1] ≤ 1000"
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@test ("CH4", 1) ∉ keys(model[:eq_emission_limit])
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end
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