From 825fa3c0729afaf478833330ae0cb7ac433c1212 Mon Sep 17 00:00:00 2001
From: Helge Eichhorn <git@helgeeichhorn.de>
Date: Sun, 5 Jul 2020 13:35:24 +0200
Subject: [PATCH] Add some benchmarks

---
 benchmark/benchmarks.jl | 509 ++++++++++++++++++++++++++++++++++++++++
 benchmark/tune.json     |   1 +
 2 files changed, 510 insertions(+)
 create mode 100644 benchmark/benchmarks.jl
 create mode 100644 benchmark/tune.json

diff --git a/benchmark/benchmarks.jl b/benchmark/benchmarks.jl
new file mode 100644
index 0000000..fc53a8c
--- /dev/null
+++ b/benchmark/benchmarks.jl
@@ -0,0 +1,509 @@
+using AstroBase
+using BenchmarkTools
+using ERFA
+
+# SUITE["ERFA"][""] = BenchmarkGroup([""])
+# SUITE["ERFA"][""]["C"] = @benchmarkable
+# SUITE["ERFA"][""]["Julia"] = @benchmarkable
+
+SUITE = BenchmarkGroup()
+
+SUITE["ERFA"] = BenchmarkGroup(["erfa"])
+
+# Nutation
+
+ep = UTCEpoch(2020, 3, 16, 18, 15, 32.141)
+jd1, jd2 = value.(julian_twopart(TTEpoch(ep)))
+
+SUITE["ERFA"]["nut80"] = BenchmarkGroup(["nutation"])
+SUITE["ERFA"]["nut80"]["C"] = @benchmarkable ERFA.nut80($jd1, $jd2)
+SUITE["ERFA"]["nut80"]["Julia"] = @benchmarkable nutation($iau1980, $ep)
+
+SUITE["ERFA"]["nut00a"] = BenchmarkGroup(["nutation"])
+SUITE["ERFA"]["nut00a"]["C"] = @benchmarkable ERFA.nut00a($jd1, $jd2)
+SUITE["ERFA"]["nut00a"]["Julia"] = @benchmarkable nutation($iau2000a, $ep)
+
+SUITE["ERFA"]["nut00b"] = BenchmarkGroup(["nutation"])
+SUITE["ERFA"]["nut00b"]["C"] = @benchmarkable ERFA.nut00b($jd1, $jd2)
+SUITE["ERFA"]["nut00b"]["Julia"] = @benchmarkable nutation($iau2000b, $ep)
+
+# Fundamental Arguments
+
+ep = UTCEpoch(2020, 3, 16, 18, 15, 32.141)
+t = julian_period(Float64, ep; scale=TDB, unit=centuries)
+longitude = AstroBase.EarthAttitude.Longitude()
+elongation = AstroBase.EarthAttitude.Elongation()
+node = AstroBase.EarthAttitude.AscendingNode()
+
+SUITE["ERFA"]["fal03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["fal03"]["C"] = @benchmarkable ERFA.fal03($t)
+SUITE["ERFA"]["fal03"]["Julia"] = @benchmarkable fundamental($luna, $t)
+
+SUITE["ERFA"]["falp03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["falp03"]["C"] = @benchmarkable ERFA.falp03($t)
+SUITE["ERFA"]["falp03"]["Julia"] = @benchmarkable fundamental($sun, $t)
+
+SUITE["ERFA"]["faf03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["faf03"]["C"] = @benchmarkable ERFA.faf03($t)
+SUITE["ERFA"]["faf03"]["Julia"] = @benchmarkable fundamental($luna, $longitude, $t)
+
+SUITE["ERFA"]["fad03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["fad03"]["C"] = @benchmarkable ERFA.fad03($t)
+SUITE["ERFA"]["fad03"]["Julia"] = @benchmarkable fundamental($luna, $elongation, $t)
+
+SUITE["ERFA"]["faom03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["faom03"]["C"] = @benchmarkable ERFA.faom03($t)
+SUITE["ERFA"]["faom03"]["Julia"] = @benchmarkable fundamental($luna, $node, $t)
+
+SUITE["ERFA"]["fame03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["fame03"]["C"] = @benchmarkable ERFA.fame03($t)
+SUITE["ERFA"]["fame03"]["Julia"] = @benchmarkable fundamental($mercury, $t)
+
+SUITE["ERFA"]["fave03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["fave03"]["C"] = @benchmarkable ERFA.fave03($t)
+SUITE["ERFA"]["fave03"]["Julia"] = @benchmarkable fundamental($venus, $t)
+
+SUITE["ERFA"]["fae03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["fae03"]["C"] = @benchmarkable ERFA.fae03($t)
+SUITE["ERFA"]["fae03"]["Julia"] = @benchmarkable fundamental($earth, $t)
+
+SUITE["ERFA"]["fama03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["fama03"]["C"] = @benchmarkable ERFA.fama03($t)
+SUITE["ERFA"]["fama03"]["Julia"] = @benchmarkable fundamental($mars, $t)
+
+SUITE["ERFA"]["faju03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["faju03"]["C"] = @benchmarkable ERFA.faju03($t)
+SUITE["ERFA"]["faju03"]["Julia"] = @benchmarkable fundamental($jupiter, $t)
+
+SUITE["ERFA"]["fasa03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["fasa03"]["C"] = @benchmarkable ERFA.fasa03($t)
+SUITE["ERFA"]["fasa03"]["Julia"] = @benchmarkable fundamental($saturn, $t)
+
+SUITE["ERFA"]["faur03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["faur03"]["C"] = @benchmarkable ERFA.faur03($t)
+SUITE["ERFA"]["faur03"]["Julia"] = @benchmarkable fundamental($uranus, $t)
+
+SUITE["ERFA"]["fane03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["fane03"]["C"] = @benchmarkable ERFA.fane03($t)
+SUITE["ERFA"]["fane03"]["Julia"] = @benchmarkable fundamental($neptune, $t)
+
+SUITE["ERFA"]["fapa03"] = BenchmarkGroup(["fundamental"])
+SUITE["ERFA"]["fapa03"]["C"] = @benchmarkable ERFA.fapa03($t)
+SUITE["ERFA"]["fapa03"]["Julia"] = @benchmarkable fundamental($t)
+
+# Obliquity
+
+ep = UTCEpoch(2020, 3, 16, 18, 15, 32.141)
+jd1, jd2 = value.(julian_twopart(TTEpoch(ep)))
+
+SUITE["ERFA"]["obl80"] = BenchmarkGroup(["obliquity"])
+SUITE["ERFA"]["obl80"]["C"] = @benchmarkable ERFA.obl80($jd1, $jd2)
+SUITE["ERFA"]["obl80"]["Julia"] = @benchmarkable obliquity($iau1980, $ep)
+
+SUITE["ERFA"]["obl06"] = BenchmarkGroup(["obliquity"])
+SUITE["ERFA"]["obl06"]["C"] = @benchmarkable ERFA.obl06($jd1, $jd2)
+SUITE["ERFA"]["obl06"]["Julia"] = @benchmarkable obliquity($iau2006, $ep)
+
+# @testset "Nutation" begin
+# ep = UTCEpoch(2020, 3, 16, 18, 15, 32.141)
+# jd = value.(julian_twopart(TTEpoch(ep)))
+# atol = 1e-12
+#
+# @testset "nut80" begin
+# nut80_exp = ERFA.nut80(jd...)
+# nut80_act = nutation(iau1980, ep)
+# @test nut80_act[1] ≈ nut80_exp[1] atol=atol
+# @test nut80_act[2] ≈ nut80_exp[2] atol=atol
+# end
+# @testset "nut00a" begin
+# nut00a_exp = ERFA.nut00a(jd...)
+# nut00a_act = nutation(iau2000a, ep)
+# @test nut00a_act[1] ≈ nut00a_exp[1] atol=atol
+# @test nut00a_act[2] ≈ nut00a_exp[2] atol=atol
+# end
+# @testset "nut00b" begin
+# nut00b_exp = ERFA.nut00b(jd...)
+# nut00b_act = nutation(iau2000b, ep)
+# @test nut00b_act[1] ≈ nut00b_exp[1] atol=atol
+# @test nut00b_act[2] ≈ nut00b_exp[2] atol=atol
+# end
+# @testset "nut06a" begin
+# nut06a_exp = ERFA.nut06a(jd...)
+# nut06a_act = nutation(iau2006a, ep)
+# @test nut06a_act[1] ≈ nut06a_exp[1] atol=atol
+# @test nut06a_act[2] ≈ nut06a_exp[2] atol=atol
+# end
+# @testset "numat" begin
+# ϵ = obliquity(iau2006, ep)
+# δψ, δϵ = nutation(iau2006a, ep)
+# numat_exp = ERFA.numat(ϵ, δψ, δϵ)
+# numat_act = nutation_matrix(ϵ, δψ, δϵ)
+# @testset for i in eachindex(numat_act, numat_exp)
+# @test numat_act[i] ≈ numat_exp[i] atol=atol
+# end
+# end
+# @testset "nutm80" begin
+# nutm80_exp = ERFA.nutm80(jd...)
+# nutm80_act = nutation_matrix(iau1980, ep)
+# @testset for i in eachindex(nutm80_act, nutm80_exp)
+# @test nutm80_act[i] ≈ nutm80_exp[i] atol=atol
+# end
+# end
+# @testset "num00a" begin
+# num00a_exp = ERFA.num00a(jd...)
+# num00a_act = nutation_matrix(iau2000a, ep)
+# @testset for i in eachindex(num00a_act, num00a_exp)
+# @test num00a_act[i] ≈ num00a_exp[i] atol=atol
+# end
+# end
+# @testset "num00b" begin
+# num00b_exp = ERFA.num00b(jd...)
+# num00b_act = nutation_matrix(iau2000b, ep)
+# @testset for i in eachindex(num00b_act, num00b_exp)
+# @test num00b_act[i] ≈ num00b_exp[i] atol=atol
+# end
+# end
+# @testset "num06a" begin
+# num06a_exp = ERFA.num06a(jd...)
+# num06a_act = nutation_matrix(iau2006a, ep)
+# @testset for i in eachindex(num06a_act, num06a_exp)
+# @test num06a_act[i] ≈ num06a_exp[i] atol=atol
+# end
+# end
+# end
+# @testset "Precession" begin
+# ep = UTCEpoch(2020, 3, 16, 18, 15, 32.141)
+# jd = value.(julian_twopart(TTEpoch(ep)))
+# atol = 1e-12
+#
+# @testset "bi00" begin
+# bi00_exp = ERFA.bi00()
+# bi00_act = bias(iau2000)
+# @testset for i in eachindex(bi00_act, bi00_exp)
+# @test bi00_act[i] ≈ bi00_exp[i] atol=atol
+# end
+# end
+# @testset "pr00" begin
+# pr00_exp = ERFA.pr00(jd...)
+# pr00_act = precession(iau2000, ep)
+# @test pr00_act[1] ≈ pr00_exp[1] atol=atol
+# @test pr00_act[2] ≈ pr00_exp[2] atol=atol
+# end
+# @testset "bp00" begin
+# bp00_exp = ERFA.bp00(jd...)
+# bp00_act = bias_precession_matrix(iau2000, ep)
+# @testset for i in eachindex(bp00_act)
+# act = bp00_act[i]
+# exp = bp00_exp[i]
+# @testset for j in eachindex(act, exp)
+# @test act[j] ≈ exp[j] atol=atol
+# end
+# end
+# end
+# @testset "pfw06" begin
+# pfw06_exp = ERFA.pfw06(jd...)
+# pfw06_act = fukushima_williams(iau2006, ep)
+# @testset for i in eachindex(pfw06_act)
+# @test pfw06_act[i] ≈ pfw06_exp[i] atol=atol
+# end
+# end
+# @testset "fw2m" begin
+# pfw = fukushima_williams(iau2006, ep)
+# fw2m_exp = ERFA.fw2m(pfw...)
+# fw2m_act = fukushima_williams_matrix(pfw...)
+# @testset for i in eachindex(fw2m_act)
+# @test fw2m_act[i] ≈ fw2m_exp[i] atol=atol
+# end
+# end
+# end
+# @testset "Precession-Nutation" begin
+# ep = UTCEpoch(2020, 3, 16, 18, 15, 32.141)
+# jd = value.(julian_twopart(TTEpoch(ep)))
+# atol = 1e-12
+#
+# @testset "pn00" begin
+# nut = nutation(iau2000a, ep)
+# pn00_exp = ERFA.pn00(jd..., nut...)
+# pn00_act = precession_nutation(iau2000, ep, nut...)
+# @testset for i in eachindex(pn00_act, pn00_exp)
+# if i == 1
+# @test pn00_act[i] ≈ pn00_exp[i] atol=atol
+# else
+# act = pn00_act[i]
+# exp = pn00_exp[i]
+# @testset for j in eachindex(act, exp)
+# @test act[j] ≈ exp[j] atol=atol
+# end
+# end
+# end
+# end
+# @testset "pn00a" begin
+# pn00a_exp = ERFA.pn00a(jd...)
+# pn00a_act = precession_nutation(iau2000a, ep)
+# @testset for i in eachindex(pn00a_act, pn00a_exp)
+# if i in 1:3
+# @test pn00a_act[i] ≈ pn00a_exp[i] atol=atol
+# else
+# act = pn00a_act[i]
+# exp = pn00a_exp[i]
+# @testset for j in eachindex(act, exp)
+# @test act[j] ≈ exp[j] atol=atol
+# end
+# end
+# end
+# end
+# @testset "pn00b" begin
+# pn00b_exp = ERFA.pn00b(jd...)
+# pn00b_act = precession_nutation(iau2000b, ep)
+# @testset for i in eachindex(pn00b_act, pn00b_exp)
+# if i in 1:3
+# @test pn00b_act[i] ≈ pn00b_exp[i] atol=atol
+# else
+# act = pn00b_act[i]
+# exp = pn00b_exp[i]
+# @testset for j in eachindex(act, exp)
+# @test act[j] ≈ exp[j] atol=atol
+# end
+# end
+# end
+# end
+# @testset "pnm00a" begin
+# pnm00a_exp = ERFA.pnm00a(jd...)
+# pnm00a_act = precession_nutation_matrix(iau2000a, ep)
+# @testset for i in eachindex(pnm00a_act, pnm00a_exp)
+# @test pnm00a_act[i] ≈ pnm00a_exp[i] atol=atol
+# end
+# end
+# @testset "pnm00b" begin
+# pnm00b_exp = ERFA.pnm00b(jd...)
+# pnm00b_act = precession_nutation_matrix(iau2000b, ep)
+# @testset for i in eachindex(pnm00b_act, pnm00b_exp)
+# @test pnm00b_act[i] ≈ pnm00b_exp[i] atol=atol
+# end
+# end
+# @testset "pnm06a" begin
+# pnm06a_exp = ERFA.pnm06a(jd...)
+# pnm06a_act = precession_nutation_matrix(iau2006a, ep)
+# @testset for i in eachindex(pnm06a_act, pnm06a_exp)
+# @test pnm06a_act[i] ≈ pnm06a_exp[i] atol=atol
+# end
+# end
+# end
+# @testset "ICRS" begin
+# ep = UTCEpoch(2020, 3, 16, 18, 15, 32.141)
+# tt = value.(julian_twopart(TTEpoch(ep)))
+# ut = value.(julian_twopart(UT1Epoch(ep)))
+# atol = 1e-12
+#
+# @testset "c2ixys" begin
+# x, y, s = cip_coords_cio_locator(iau2000a, ep)
+# c2ixys_act = celestial_to_intermediate(x, y, s)
+# c2ixys_exp = ERFA.c2ixys(x, y, s)
+# @testset for i in eachindex(c2ixys_act, c2ixys_exp)
+# @test c2ixys_act[i] ≈ c2ixys_exp[i] atol=atol
+# end
+# end
+# @testset "c2ixy" begin
+# x, y, _ = cip_coords_cio_locator(iau2000a, ep)
+# c2ixy_act = celestial_to_intermediate(iau2000, ep, x, y)
+# c2ixy_exp = ERFA.c2ixy(tt..., x, y)
+# @testset for i in eachindex(c2ixy_act, c2ixy_exp)
+# @test c2ixy_act[i] ≈ c2ixy_exp[i] atol=atol
+# end
+# end
+# @testset "c2ibpn" begin
+# rnpb = precession_nutation_matrix(iau2000a, ep)
+# c2ibpn_act = celestial_to_intermediate(iau2000, ep, rnpb)
+# c2ibpn_exp = ERFA.c2ibpn(tt..., rnpb)
+# @testset for i in eachindex(c2ibpn_act, c2ibpn_exp)
+# @test c2ibpn_act[i] ≈ c2ibpn_exp[i] atol=atol
+# end
+# end
+# @testset "c2i00a" begin
+# c2i00a_act = celestial_to_intermediate(iau2000a, ep)
+# c2i00a_exp = ERFA.c2i00a(tt...)
+# @testset for i in eachindex(c2i00a_act, c2i00a_exp)
+# @test c2i00a_act[i] ≈ c2i00a_exp[i] atol=atol
+# end
+# end
+# @testset "c2i00b" begin
+# c2i00b_act = celestial_to_intermediate(iau2000b, ep)
+# c2i00b_exp = ERFA.c2i00b(tt...)
+# @testset for i in eachindex(c2i00b_act, c2i00b_exp)
+# @test c2i00b_act[i] ≈ c2i00b_exp[i] atol=atol
+# end
+# end
+# @testset "c2tcio/c2teqx" begin
+# xys = randn(3)
+# a = polar_motion(iau2000, xys...)
+# b = π
+# c = polar_motion(iau2000, xys...)
+# d_act = celestial_to_terrestrial_cio(a, b, c)
+# e_act = celestial_to_terrestrial_equinox(a, b, c)
+# d_exp = ERFA.c2tcio(a, b, c)
+# e_exp = ERFA.c2teqx(a, b, c)
+# @testset for i in eachindex(d_act, d_exp)
+# @test d_act[i] ≈ d_exp[i] atol=atol
+# end
+# @testset for i in eachindex(e_act, e_exp)
+# @test e_act[i] ≈ e_exp[i] atol=atol
+# end
+# @testset for i in eachindex(d_act, e_act)
+# @test d_act[i] ≈ e_act[i] atol=atol
+# end
+# end
+# @testset "c2t00a" begin
+# xp = π/4
+# yp = π/8
+# c2t00a_act = celestial_to_terrestrial_cio(iau2000a, ep, xp, yp)
+# c2t00a_exp = ERFA.c2t00a(tt..., ut..., xp, yp)
+# @testset for i in eachindex(c2t00a_act, c2t00a_exp)
+# @test c2t00a_act[i] ≈ c2t00a_exp[i] atol=atol
+# end
+# end
+# @testset "c2t00b" begin
+# xp = π/4
+# yp = π/8
+# c2t00b_act = celestial_to_terrestrial_cio(iau2000b, ep, xp, yp)
+# c2t00b_exp = ERFA.c2t00b(tt..., ut..., xp, yp)
+# @testset for i in eachindex(c2t00b_act, c2t00b_exp)
+# @test c2t00b_act[i] ≈ c2t00b_exp[i] atol=atol
+# end
+# end
+# @testset "c2tpe" begin
+# xp = π/4
+# yp = π/8
+# δψ, δϵ = nutation(iau2000b, ep)
+# c2tpe_act = celestial_to_terrestrial_equinox(iau2000, ep, δψ, δϵ, xp, yp)
+# c2tpe_exp = ERFA.c2tpe(tt..., ut..., δψ, δϵ, xp, yp)
+# @testset for i in eachindex(c2tpe_act, c2tpe_exp)
+# @test c2tpe_act[i] ≈ c2tpe_exp[i] atol=atol
+# end
+# end
+# @testset "c2txy" begin
+# xp = float(π/4)
+# yp = float(π/8)
+# rnpb = precession_nutation_matrix(iau2000a, ep)
+# x, y = cip_coords(rnpb)
+# c2txy_act = celestial_to_terrestrial_cio(iau2000, ep, x, y, xp, yp)
+# c2txy_exp = ERFA.c2txy(tt..., ut..., x, y, xp, yp)
+# @testset for i in eachindex(c2txy_act, c2txy_exp)
+# @test c2txy_act[i] ≈ c2txy_exp[i] atol=atol
+# end
+# end
+# @testset "eors" begin
+# rnpb = precession_nutation_matrix(iau2000a, ep)
+# x, y = cip_coords(rnpb)
+# s = cio_locator(iau2000, ep, x, y)
+# @test equation_of_origins(rnpb, s) ≈ ERFA.eors(rnpb, s) atol=atol
+# end
+# @testset "pom00" begin
+# xp = π/4
+# yp = π/8
+# s′ = tio_locator(iau2000, ep)
+# pom00_act = polar_motion(iau2000, xp, yp, s′)
+# pom00_exp = ERFA.pom00(xp, yp, s′)
+# @testset for i in eachindex(pom00_act, pom00_exp)
+# @test pom00_act[i] ≈ pom00_exp[i] atol=atol
+# end
+# end
+# @testset "s00" begin
+# rnpb = precession_nutation_matrix(iau2000a, ep)
+# x, y = cip_coords(rnpb)
+# @test cio_locator(iau2000, ep, x, y) ≈ ERFA.s00(tt..., x, y) atol=atol
+# end
+# @testset "s00a" begin
+# @test cio_locator(iau2000a, ep) ≈ ERFA.s00a(tt...) atol=atol
+# end
+# @testset "s00b" begin
+# @test cio_locator(iau2000b, ep) ≈ ERFA.s00b(tt...) atol=atol
+# end
+# @testset "s06" begin
+# rnpb = precession_nutation_matrix(iau2000a, ep)
+# x, y = cip_coords(rnpb)
+# @test cio_locator(iau2006, ep, x, y) ≈ ERFA.s06(tt..., x, y) atol=atol
+# end
+# @testset "s06a" begin
+# @test cio_locator(iau2006a, ep) ≈ ERFA.s06a(tt...) atol=atol
+# end
+# @testset "sp00" begin
+# @test tio_locator(iau2000, ep) ≈ ERFA.sp00(tt...) atol=atol
+# end
+# @testset "xy06" begin
+# x_act, y_act = cip_coords(iau2006, ep)
+# x_exp, y_exp = ERFA.xy06(tt...)
+# @test x_act ≈ x_exp atol=atol
+# @test y_act ≈ y_exp atol=atol
+# end
+# @testset "xys00a" begin
+# xys00a_act = cip_coords_cio_locator(iau2000a, ep)
+# xys00a_exp = ERFA.xys00a(tt...)
+# @testset for i in eachindex(xys00a_act, xys00a_exp)
+# @test xys00a_act[i] ≈ xys00a_exp[i] atol=atol
+# end
+# end
+# @testset "xys00b" begin
+# xys00b_act = cip_coords_cio_locator(iau2000b, ep)
+# xys00b_exp = ERFA.xys00b(tt...)
+# @testset for i in eachindex(xys00b_act, xys00b_exp)
+# @test xys00b_act[i] ≈ xys00b_exp[i] atol=atol
+# end
+# end
+# end
+# @testset "Rotation" begin
+# ep = UTCEpoch(2020, 3, 16, 18, 15, 32.141)
+# ut = value.(julian_twopart(UT1Epoch(ep)))
+# tt = value.(julian_twopart(TTEpoch(ep)))
+# tdb = value.(julian_twopart(TDBEpoch(ep)))
+# atol = 1e-12
+#
+# @testset "era00" begin
+# @test earth_rotation_angle(iau2000, ep) ≈ ERFA.era00(ut...) atol=atol
+# end
+# @testset "eqeq94" begin
+# @test equinoxes(iau1994, ep) ≈ ERFA.eqeq94(tdb...) atol=atol
+# end
+# @testset "eect00" begin
+# @test equinoxes(iau2000, ep) ≈ ERFA.eect00(tt...) atol=atol
+# end
+# @testset "ee00" begin
+# ϵ = obliquity(iau1980, ep)
+# δψ, _ = nutation(iau2000a, ep)
+# @test equinoxes(iau2000, ep, ϵ, δψ) ≈ ERFA.ee00(tt..., ϵ, δψ) atol=atol
+# end
+# @testset "ee00a" begin
+# @test equinoxes(iau2000a, ep) ≈ ERFA.ee00a(tt...) atol=atol
+# end
+# @testset "ee00b" begin
+# @test equinoxes(iau2000b, ep) ≈ ERFA.ee00b(tt...) atol=atol
+# end
+# @testset "ee06a" begin
+# @test equinoxes(iau2006a, ep) ≈ ERFA.ee06a(tt...) atol=atol
+# end
+# @testset "gmst82" begin
+# @test mean_sidereal(iau1982, ep) ≈ ERFA.gmst82(ut...) atol=atol
+# end
+# @testset "gmst00" begin
+# @test mean_sidereal(iau2000, ep) ≈ ERFA.gmst00(ut..., tt...) atol=atol
+# end
+# @testset "gmst06" begin
+# @test mean_sidereal(iau2006, ep) ≈ ERFA.gmst06(ut..., tt...) atol=atol
+# end
+# @testset "gst94" begin
+# @test apparent_sidereal(iau1994, ep) ≈ ERFA.gst94(ut...) atol=atol
+# end
+# @testset "gst00a" begin
+# @test apparent_sidereal(iau2000a, ep) ≈ ERFA.gst00a(ut..., tt...) atol=atol
+# end
+# @testset "gst00b" begin
+# @test apparent_sidereal(iau2000b, ep) ≈ ERFA.gst00b(ut...) atol=atol
+# end
+# @testset "gst06" begin
+# rnpb = precession_nutation_matrix(iau2006a, ep)
+# @test apparent_sidereal(iau2006, ep, rnpb) ≈ ERFA.gst06(ut..., tt..., rnpb) atol=atol
+# end
+# @testset "gst06a" begin
+# @test apparent_sidereal(iau2006a, ep) ≈ ERFA.gst06a(ut..., tt...) atol=atol
+# end
+# end
+# end
diff --git a/benchmark/tune.json b/benchmark/tune.json
new file mode 100644
index 0000000..75a5b8c
--- /dev/null
+++ b/benchmark/tune.json
@@ -0,0 +1 @@
+[{"Julia":"1.4.2","BenchmarkTools":"0.4.3"},[["BenchmarkGroup",{"data":{},"tags":[]}]]]
\ No newline at end of file