Files
nanoconc/test/miemfp_tests.jl

99 lines
3.7 KiB
Julia

using Test
using PropCheck
include("../anchors.jl")
import .Anchors: TEST_DIR, SRC_DIR
if !@isdefined TestUtils
include(joinpath(TEST_DIR, "testutils.jl"))
end
if !@isdefined miemfp
include(joinpath(SRC_DIR, "miemfp.jl"))
end
if !@isdefined FFIWraps
include(joinpath(TEST_DIR, "ffi_wraps.jl"))
end
# function julia_vs_c(args::Tuple{Float64, Float64, Float64, UInt32, Vector{Float64}, Vector{Float64}, Vector{Float64}, Vector{Float64}})
# x, cxref_re, cxref_im, nang, cxs1_re, cxs1_im, cxs2_re, cxs2_im = args
function julia_vs_c(x, cxref_re, cxref_im, nang, cxs1_re, cxs1_im, cxs2_re, cxs2_im)
cxref, cxs1, cxs2 = ComplexF64(cxref_re, cxref_im), ComplexF64.(cxs1_re, cxs1_im), ComplexF64.(cxs2_re, cxs2_im)
x_c, cxref_c, nang_c, cxs1_c, cxs2_c = Float32(x), ComplexF32(cxref), UInt32(nang), ComplexF32.(cxs1), ComplexF32.(cxs2)
return isapprox(
miemfp.bhmie(x, cxref, nang),
FFIWraps.bhmie_c(x_c, cxref_c, nang_c, cxs1_c, cxs2_c),
rtol=0.1,
)
end
# function julia_vs_fortran(args::Tuple{Float64, Float64, Float64, UInt32, Vector{Float64}, Vector{Float64}, Vector{Float64}, Vector{Float64}})
# x, cxref_re, cxref_im, nang, cxs1_re, cxs1_im, cxs2_re, cxs2_im = args
function julia_vs_fortran(x, cxref_re, cxref_im, nang, cxs1_re, cxs1_im, cxs2_re, cxs2_im)
cxref, cxs1, cxs2 = ComplexF64(cxref_re, cxref_im), ComplexF64.(cxs1_re, cxs1_im), ComplexF64.(cxs2_re, cxs2_im)
x_f, cxref_f, nang_f, cxs1_f, cxs2_f = Float32(x), ComplexF32(cxref), Int32(nang), ComplexF32.(cxs1), ComplexF32.(cxs2)
b = miemfp.bhmie(x, cxref, nang)
f = FFIWraps.bhmie_fortran(x_f, cxref_f, nang_f, cxs1_f, cxs2_f)
# open("bhmie_julia_vs_fortran.txt", "a") do io
# println(io, "julia: ", b)
# println(io, "fortran: ", f)
# end
# return is_approx(b, f)
return isapprox(
miemfp.bhmie(x, cxref, nang),
FFIWraps.bhmie_fortran(x_f, cxref_f, nang_f, cxs1_f, cxs2_f),
rtol=0.1,
)
end
# function julia_vs_fortran77(args::Tuple{Float64, Float64, Float64, UInt32, Vector{Float64}, Vector{Float64}, Vector{Float64}, Vector{Float64}})
# x, cxref_re, cxref_im, nang, cxs1_re, cxs1_im, cxs2_re, cxs2_im = args
function julia_vs_fortran77(x, cxref_re, cxref_im, nang, cxs1_re, cxs1_im, cxs2_re, cxs2_im)
cxref, cxs1, cxs2 = ComplexF64(cxref_re, cxref_im), ComplexF64.(cxs1_re, cxs1_im), ComplexF64.(cxs2_re, cxs2_im)
x_f, cxref_f, nang_f, cxs1_f, cxs2_f = Float32(x), ComplexF32(cxref), Int32(nang), ComplexF32.(cxs1), ComplexF32.(cxs2)
return isapprox(
miemfp.bhmie(x, cxref, nang),
FFIWraps.bhmie_fortran77(x_f, cxref_f, nang_f, cxs1_f, cxs2_f),
rtol=0.1,
)
end
f64_gen = PropCheck.itype(Float64)
UInt32_gen = PropCheck.itype(UInt32)
f64_vec_gen = PropCheck.vector(isample(1:100), f64_gen)
bhmie_gen = PropCheck.interleave(
f64_gen,
f64_gen,
f64_gen,
UInt32_gen,
f64_vec_gen,
f64_vec_gen,
f64_vec_gen,
f64_vec_gen,
)
@testset "bhmie" begin
@testset "miemfp.bhmie" begin
c_check = PropCheck.check(julia_vs_c, bhmie_gen)
c_result = c_check == true
if !c_result
println("Fail vs C, PropCheck:")
display(c_check)
end
@test c_result
f_check = PropCheck.check(julia_vs_fortran, bhmie_gen)
f_result = f_check == true
if !f_result
println("Fail vs Fortran, PropCheck:")
display(f_check)
end
@test f_result
f77_check = PropCheck.check(julia_vs_fortran77, bhmie_gen)
f77_result = f77_check == true
if !f77_result
println("Fail vs Fortran77, PropCheck:")
display(f77_check)
end
@test f77_result
end
end