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reflection.jl
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reflection.jl
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# This file is a part of Julia. License is MIT: https://julialang.org/license
using Test
include("compiler/irutils.jl")
# code_native / code_llvm (issue #8239)
# It's hard to really test these, but just running them should be
# sufficient to catch segfault bugs.
module ReflectionTest
using Test, Random
function test_ir_reflection(freflect, f, types)
@test !isempty(freflect(f, types))
nothing
end
function test_bin_reflection(freflect, f, types)
iob = IOBuffer()
freflect(iob, f, types)
str = String(take!(iob))
@test !isempty(str)
nothing
end
function test_code_reflection(freflect, f, types, tester)
tester(freflect, f, types)
tester(freflect, f, (types.parameters...,))
nothing
end
function test_code_reflections(tester, freflect)
test_code_reflection(freflect, occursin,
Tuple{Regex, AbstractString}, tester) # abstract type
test_code_reflection(freflect, +, Tuple{Int, Int}, tester) # leaftype signature
test_code_reflection(freflect, +,
Tuple{Array{Float32}, Array{Float32}}, tester) # incomplete types
test_code_reflection(freflect, Module, Tuple{}, tester) # Module() constructor (transforms to call)
test_code_reflection(freflect, Array{Int64}, Tuple{Array{Int32}}, tester) # with incomplete types
test_code_reflection(freflect, muladd, Tuple{Float64, Float64, Float64}, tester)
end
test_code_reflections(test_ir_reflection, code_lowered)
test_code_reflections(test_ir_reflection, code_typed)
io = IOBuffer()
Base.print_statement_costs(io, map, (typeof(sqrt), Tuple{Int}))
str = String(take!(io))
@test occursin("map(f, t::Tuple{Any})", str)
@test occursin("sitofp", str)
@test occursin(r"20 .*sqrt_llvm.*::Float64", str)
end # module ReflectionTest
# isbits, isbitstype
@test !isbitstype(Array{Int})
@test isbitstype(Float32)
@test isbitstype(Int)
@test !isbitstype(AbstractString)
@test isbitstype(Tuple{Int, Vararg{Int, 2}})
@test !isbitstype(Tuple{Int, Vararg{Int}})
@test !isbitstype(Tuple{Integer, Vararg{Int, 2}})
@test isbitstype(Tuple{Int, Vararg{Any, 0}})
@test isbitstype(Tuple{Vararg{Any, 0}})
@test isbits(1)
@test isbits((1,2))
@test !isbits([1])
@test isbits(nothing)
@test fully_eliminated(isbits, (Int,))
# issue #16670
@test isconcretetype(Int)
@test isconcretetype(Vector{Int})
@test isconcretetype(Tuple{Int, Vararg{Int, 2}})
@test !isconcretetype(Tuple{Any})
@test !isconcretetype(Tuple{Integer, Vararg{Int, 2}})
@test !isconcretetype(Tuple{Int, Vararg{Int}})
@test !isconcretetype(Type{Tuple{Integer, Vararg{Int}}})
@test !isconcretetype(Type{Vector})
@test !isconcretetype(Type{Int})
@test !isconcretetype(Tuple{Type{Int}})
@test isconcretetype(DataType)
@test isconcretetype(Union)
@test !isconcretetype(Union{})
@test !isconcretetype(Complex)
@test !isconcretetype(Complex.body)
@test !isconcretetype(AbstractArray{Int,1})
struct AlwaysHasLayout{T}
x
end
@test !isconcretetype(AlwaysHasLayout) && !isconcretetype(AlwaysHasLayout.body)
@test isconcretetype(AlwaysHasLayout{Any})
@test isconcretetype(Ptr{Cvoid})
@test !isconcretetype(Ptr) && !isconcretetype(Ptr.body)
# issue #10165
i10165(::Type) = 0
i10165(::Type{AbstractArray{T,n}}) where {T,n} = 1
@test i10165(AbstractArray{Int,n} where n) == 0
@test which(i10165, Tuple{Type{AbstractArray{Int,n} where n},}).sig == Tuple{typeof(i10165),Type}
# fullname
@test fullname(Base) == (:Base,)
@test fullname(Base.Iterators) == (:Base, :Iterators)
const a_const = 1
not_const = 1
@test isconst(@__MODULE__, :a_const) == true
@test isconst(Base, :pi) == true
@test isconst(@__MODULE__, :pi) == true
@test isconst(@__MODULE__, :not_const) == false
@test isconst(@__MODULE__, :is_not_defined) == false
@test ismutable(1) == false
@test ismutable([]) == true
@test ismutabletype(Int) == false
@test ismutabletype(Vector{Any}) == true
@test ismutabletype(Union{Int, Vector{Any}}) == false
## find bindings tests
@test ccall(:jl_get_module_of_binding, Any, (Any, Any), Base, :sin)==Base
# For curmod_*
include("testenv.jl")
module TestMod7648
using Test
import Base.convert
import ..curmod_name, ..curmod
export a9475, foo9475, c7648, foo7648, foo7648_nomethods, Foo7648
const c7648 = 8
d7648 = 9
const f7648 = 10
foo7648(x) = x
function foo7648_nomethods end
mutable struct Foo7648 end
module TestModSub9475
using Test
using ..TestMod7648
import ..curmod_name
export a9475, foo9475
a9475 = 5
b9475 = 7
foo9475(x) = x
let
@test Base.binding_module(@__MODULE__, :a9475) == @__MODULE__
@test Base.binding_module(@__MODULE__, :c7648) == TestMod7648
@test Base.nameof(@__MODULE__) === :TestModSub9475
@test Base.fullname(@__MODULE__) == (curmod_name..., :TestMod7648, :TestModSub9475)
@test Base.parentmodule(@__MODULE__) == TestMod7648
end
end # module TestModSub9475
using .TestModSub9475
let
@test Base.binding_module(@__MODULE__, :d7648) == @__MODULE__
@test Base.binding_module(@__MODULE__, :a9475) == TestModSub9475
@test Base.nameof(@__MODULE__) === :TestMod7648
@test Base.parentmodule(@__MODULE__) == curmod
end
end # module TestMod7648
let
@test Base.binding_module(TestMod7648, :d7648) == TestMod7648
@test Base.binding_module(TestMod7648, :a9475) == TestMod7648.TestModSub9475
@test Base.binding_module(TestMod7648.TestModSub9475, :b9475) == TestMod7648.TestModSub9475
@test Set(names(TestMod7648))==Set([:TestMod7648, :a9475, :foo9475, :c7648, :foo7648, :foo7648_nomethods, :Foo7648])
@test Set(names(TestMod7648, all = true)) == Set([:TestMod7648, :TestModSub9475, :a9475, :foo9475, :c7648, :d7648, :f7648,
:foo7648, Symbol("#foo7648"), :foo7648_nomethods, Symbol("#foo7648_nomethods"),
:Foo7648, :eval, Symbol("#eval"), :include, Symbol("#include")])
@test Set(names(TestMod7648, all = true, imported = true)) == Set([:TestMod7648, :TestModSub9475, :a9475, :foo9475, :c7648, :d7648, :f7648,
:foo7648, Symbol("#foo7648"), :foo7648_nomethods, Symbol("#foo7648_nomethods"),
:Foo7648, :eval, Symbol("#eval"), :include, Symbol("#include"),
:convert, :curmod_name, :curmod])
@test isconst(TestMod7648, :c7648)
@test !isconst(TestMod7648, :d7648)
end
let
using .TestMod7648
@test Base.binding_module(@__MODULE__, :a9475) == TestMod7648.TestModSub9475
@test Base.binding_module(@__MODULE__, :c7648) == TestMod7648
@test nameof(foo7648) === :foo7648
@test parentmodule(foo7648, (Any,)) == TestMod7648
@test parentmodule(foo7648) == TestMod7648
@test parentmodule(foo7648_nomethods) == TestMod7648
@test parentmodule(foo9475, (Any,)) == TestMod7648.TestModSub9475
@test parentmodule(foo9475) == TestMod7648.TestModSub9475
@test parentmodule(Foo7648) == TestMod7648
@test parentmodule(first(methods(foo9475))) == TestMod7648.TestModSub9475
@test parentmodule(first(methods(foo7648))) == TestMod7648
@test nameof(Foo7648) === :Foo7648
@test basename(functionloc(foo7648, (Any,))[1]) == "reflection.jl"
@test first(methods(TestMod7648.TestModSub9475.foo7648)) == which(foo7648, (Int,))
@test TestMod7648 == which(@__MODULE__, :foo7648)
@test TestMod7648.TestModSub9475 == which(@__MODULE__, :a9475)
end
@test which(===, Tuple{Int, Int}) isa Method
@test length(code_typed(===, Tuple{Int, Int})) === 1
@test only(Base.return_types(===, Tuple{Int, Int})) === Bool
module TestingExported
using Test
include("testenv.jl") # for curmod_str
import Base.isexported
global this_is_not_defined
export this_is_not_defined
@test_throws ErrorException("\"this_is_not_defined\" is not defined in module Main") which(Main, :this_is_not_defined)
@test_throws ErrorException("\"this_is_not_exported\" is not defined in module Main") which(Main, :this_is_not_exported)
@test isexported(@__MODULE__, :this_is_not_defined)
@test !isexported(@__MODULE__, :this_is_not_exported)
const a_value = 1
@test which(@__MODULE__, :a_value) === @__MODULE__
@test_throws ErrorException("\"a_value\" is not defined in module Main") which(Main, :a_value)
@test which(Main, :Core) === Main
@test !isexported(@__MODULE__, :a_value)
end
# PR 13825
let ex = :(a + b)
@test string(ex) == "a + b"
end
foo13825(::Array{T, N}, ::Array, ::Vector) where {T, N} = nothing
@test startswith(string(first(methods(foo13825))),
"foo13825(::Array{T, N}, ::Array, ::Vector) where {T, N}")
mutable struct TLayout
x::Int8
y::Int16
z::Int32
end
tlayout = TLayout(5,7,11)
@test fieldnames(TLayout) == (:x, :y, :z) == Base.propertynames(tlayout)
@test hasfield(TLayout, :y)
@test !hasfield(TLayout, :a)
@test hasfield(Complex, :re)
@test !hasfield(Complex, :qxq)
@test hasproperty(tlayout, :x)
@test !hasproperty(tlayout, :p)
@test [(fieldoffset(TLayout,i), fieldname(TLayout,i), fieldtype(TLayout,i)) for i = 1:fieldcount(TLayout)] ==
[(0, :x, Int8), (2, :y, Int16), (4, :z, Int32)]
@test fieldnames(Complex) === (:re, :im)
@test_throws BoundsError fieldtype(TLayout, 0)
@test_throws ArgumentError fieldname(TLayout, 0)
@test_throws BoundsError fieldoffset(TLayout, 0)
@test_throws BoundsError fieldtype(TLayout, 4)
@test_throws ArgumentError fieldname(TLayout, 4)
@test_throws BoundsError fieldoffset(TLayout, 4)
@test fieldtype(Tuple{Vararg{Int8}}, 1) === Int8
@test fieldtype(Tuple{Vararg{Int8}}, 10) === Int8
@test_throws BoundsError fieldtype(Tuple{Vararg{Int8}}, 0)
# issue #30505
@test fieldtype(Union{Tuple{Char},Tuple{Char,Char}},2) === Char
@test_throws BoundsError fieldtype(Union{Tuple{Char},Tuple{Char,Char}},3)
@test fieldnames(NTuple{3, Int}) == ntuple(i -> fieldname(NTuple{3, Int}, i), 3) == (1, 2, 3)
@test_throws ArgumentError fieldnames(Union{})
@test_throws BoundsError fieldname(NTuple{3, Int}, 0)
@test_throws BoundsError fieldname(NTuple{3, Int}, 4)
@test fieldnames(NamedTuple{(:z,:a)}) === (:z,:a)
@test fieldname(NamedTuple{(:z,:a)}, 1) === :z
@test fieldname(NamedTuple{(:z,:a)}, 2) === :a
@test_throws ArgumentError fieldname(NamedTuple{(:z,:a)}, 3)
@test_throws ArgumentError fieldnames(NamedTuple)
@test_throws ArgumentError fieldnames(NamedTuple{T,Tuple{Int,Int}} where T)
@test_throws ArgumentError fieldnames(Real)
@test_throws ArgumentError fieldnames(AbstractArray)
@test fieldtype((NamedTuple{T,Tuple{Int,String}} where T), 1) === Int
@test fieldtype((NamedTuple{T,Tuple{Int,String}} where T), 2) === String
@test_throws BoundsError fieldtype((NamedTuple{T,Tuple{Int,String}} where T), 3)
@test fieldtype(NamedTuple, 42) === Any
@test_throws BoundsError fieldtype(NamedTuple, 0)
@test_throws BoundsError fieldtype(NamedTuple, -1)
@test fieldtype(NamedTuple{(:a,:b)}, 1) === Any
@test fieldtype(NamedTuple{(:a,:b)}, 2) === Any
@test fieldtype((NamedTuple{(:a,:b),T} where T<:Tuple{Vararg{Integer}}), 2) === Integer
@test_throws BoundsError fieldtype(NamedTuple{(:a,:b)}, 3)
# issue #32697
@test fieldtype(NamedTuple{(:x,:y), T} where T <: Tuple{Int, Union{Float64, Missing}}, :x) == Int
@test fieldtype(NamedTuple{(:x,:y), T} where T <: Tuple{Int, Union{Float64, Missing}}, :y) == Union{Float64, Missing}
@test fieldtypes(NamedTuple{(:a,:b)}) == (Any, Any)
@test fieldtypes((NamedTuple{T,Tuple{Int,String}} where T)) === (Int, String)
@test fieldtypes(TLayout) === (Int8, Int16, Int32)
import Base: datatype_alignment, return_types
@test datatype_alignment(UInt16) == 2
@test datatype_alignment(TLayout) == 4
let rts = return_types(TLayout)
@test length(rts) == 2 # general constructor and specific constructor
@test all(rts .== TLayout)
end
# issue #15447
f15447_line = @__LINE__() + 1
@noinline function f15447(s, a)
if s
return a
else
nb = 0
return nb
end
end
@test functionloc(f15447)[2] == f15447_line
# issue #14346
@noinline function f14346(id, mask, limit)
if id <= limit && mask[id]
return true
end
end
@test functionloc(f14346)[2] == @__LINE__() - 5
# issue #15714
# show variable names for slots and suppress spurious type warnings
function f15714(array_var15714)
for index_var15714 in eachindex(array_var15714)
array_var15714[index_var15714] += 0
end
end
function g15714(array_var15714)
for index_var15714 in eachindex(array_var15714)
array_var15714[index_var15714] += 0
end
let index_var15714
for outer index_var15714 in eachindex(array_var15714)
array_var15714[index_var15714] += 0
end
index_var15714
end
let index_var15714
for outer index_var15714 in eachindex(array_var15714)
array_var15714[index_var15714] += 0
end
index_var15714
end
end
import InteractiveUtils.code_warntype
used_dup_var_tested15714 = false
used_unique_var_tested15714 = false
function test_typed_ir_printing(Base.@nospecialize(f), Base.@nospecialize(types), must_used_vars)
src, rettype = code_typed(f, types, optimize=false)[1]
dupnames = Set()
slotnames = Set()
for name in src.slotnames
if name in slotnames || name === Symbol("")
push!(dupnames, name)
else
push!(slotnames, name)
end
end
# Make sure must_used_vars are in slotnames
for name in must_used_vars
@test name in slotnames
end
must_used_checked = Dict{Symbol,Bool}()
for sym in must_used_vars
must_used_checked[sym] = false
end
for str in (sprint(io -> code_warntype(io, f, types, optimize=false)),
repr("text/plain", src))
for var in must_used_vars
@test occursin(string(var), str)
end
# Check that we are not printing the bare slot numbers
for i in 1:length(src.slotnames)
name = src.slotnames[i]
if name in dupnames
if name in must_used_vars && occursin(Regex("_$i\\b"), str)
must_used_checked[name] = true
global used_dup_var_tested15714 = true
end
else
@test !occursin(Regex("_$i\\b"), str)
if name in must_used_vars
global used_unique_var_tested15714 = true
end
end
end
end
for sym in must_used_vars
if sym in dupnames
@test must_used_checked[sym]
end
must_used_checked[sym] = false
end
# Make sure printing an AST outside CodeInfo still works.
str = sprint(show, src.code)
# Check that we are printing the slot numbers when we don't have the context
# Use the variable names that we know should be present in the optimized AST
for i in 2:length(src.slotnames)
name = src.slotnames[i]
if name in must_used_vars && occursin(Regex("_$i\\b"), str)
must_used_checked[name] = true
end
end
for sym in must_used_vars
@test must_used_checked[sym]
end
end
test_typed_ir_printing(f15714, Tuple{Vector{Float32}},
[:array_var15714, :index_var15714])
test_typed_ir_printing(g15714, Tuple{Vector{Float32}},
[:array_var15714, :index_var15714])
#This test doesn't work with the new optimizer because we drop slotnames
#We may want to test it against debug info eventually
#@test used_dup_var_tested15715
@test used_unique_var_tested15714
let li = typeof(fieldtype).name.mt.cache.func::Core.MethodInstance,
lrepr = string(li),
mrepr = string(li.def),
lmime = repr("text/plain", li),
mmime = repr("text/plain", li.def)
@test lrepr == lmime == "MethodInstance for fieldtype(...)"
@test mrepr == "fieldtype(...) @ Core none:0" # simple print
@test mmime == "fieldtype(...)\n @ Core none:0" # verbose print
end
# Linfo Tracing test
function tracefoo end
# Method Tracing test
methtracer(x::Ptr{Cvoid}) = (@test isa(unsafe_pointer_to_objref(x), Method); global didtrace = true; nothing)
let cmethtracer = @cfunction(methtracer, Cvoid, (Ptr{Cvoid},))
ccall(:jl_register_newmeth_tracer, Cvoid, (Ptr{Cvoid},), cmethtracer)
end
didtrace = false
tracefoo2(x, y) = x*y
@test didtrace
didtrace = false
tracefoo(x::Int64, y::Int64) = x*y
@test didtrace
didtrace = false
ccall(:jl_register_newmeth_tracer, Cvoid, (Ptr{Cvoid},), C_NULL)
# test for reflection over large method tables
for i = 1:100; @eval fLargeTable(::Val{$i}, ::Any) = 1; end
for i = 1:100; @eval fLargeTable(::Any, ::Val{$i}) = 2; end
fLargeTable(::Any...) = 3
@test length(methods(fLargeTable, Tuple{})) == 1
fLargeTable(::Complex, ::Complex) = 4
fLargeTable(::Union{ComplexF32, ComplexF64}...) = 5
@test length(methods(fLargeTable, Tuple{})) == 1
fLargeTable() = 4
@test length(methods(fLargeTable)) == 204
@test length(methods(fLargeTable, Tuple{})) == 1
@test fLargeTable(1im, 2im) == 4
@test fLargeTable(1.0im, 2.0im) == 5
@test_throws MethodError fLargeTable(Val(1), Val(1))
@test fLargeTable(Val(1), 1) == 1
@test fLargeTable(1, Val(1)) == 2
fLargeTable(::Union, ::Union) = "a"
@test fLargeTable(Union{Int, Missing}, Union{Int, Missing}) == "a"
fLargeTable(::Union, ::Union) = "b"
@test length(methods(fLargeTable)) == 205
@test fLargeTable(Union{Int, Missing}, Union{Int, Missing}) == "b"
# issue #15280
function f15280(x) end
@test functionloc(f15280)[2] > 0
# bug found in #16850, Base.url with backslashes on Windows
function module_depth(from::Module, to::Module)
if from === to || parentmodule(to) === to
return 0
else
return 1 + module_depth(from, parentmodule(to))
end
end
function has_backslashes(mod::Module)
for n in names(mod, all = true, imported = true)
isdefined(mod, n) || continue
Base.isdeprecated(mod, n) && continue
f = getfield(mod, n)
if isa(f, Module) && module_depth(Main, f) <= module_depth(Main, mod)
continue
end
h = has_backslashes(f)
h === nothing || return h
end
return nothing
end
function has_backslashes(f::Function)
for m in methods(f)
h = has_backslashes(m)
h === nothing || return h
end
return nothing
end
function has_backslashes(meth::Method)
if '\\' in string(meth.file)
return meth
else
return nothing
end
end
has_backslashes(x) = nothing
h16850 = has_backslashes(Base)
if Sys.iswindows()
if h16850 === nothing
@warn """No methods found in Base with backslashes in file name,
skipping test for `Base.url`"""
else
@test !('\\' in Base.url(h16850))
end
else
@test h16850 === nothing
end
# PR #18888: code_typed shouldn't cache, return_types should
f18888() = nothing
let
world = Core.Compiler.get_world_counter()
m = first(methods(f18888, Tuple{}))
ft = typeof(f18888)
code_typed(f18888, Tuple{}; optimize=false)
@test m.specializations !== Core.svec() # uncached, but creates the specializations entry
mi = Core.Compiler.specialize_method(m, Tuple{ft}, Core.svec())
interp = Core.Compiler.NativeInterpreter(world)
@test !Core.Compiler.haskey(Core.Compiler.code_cache(interp), mi)
@test !isdefined(mi, :cache)
code_typed(f18888, Tuple{}; optimize=true)
@test !isdefined(mi, :cache)
Base.return_types(f18888, Tuple{})
@test Core.Compiler.getindex(Core.Compiler.code_cache(interp), mi) === mi.cache
@test mi.cache isa Core.CodeInstance
@test !isdefined(mi.cache, :next)
end
# code_typed_by_type
@test Base.code_typed_by_type(Tuple{Type{<:Val}})[2][2] == Val
@test Base.code_typed_by_type(Tuple{typeof(sin), Float64})[1][2] === Float64
# New reflection methods in 0.6
struct ReflectionExample{T<:AbstractFloat, N}
x::Tuple{T, N}
end
@test !isabstracttype(Union{})
@test !isabstracttype(Union{Int,Float64})
@test isabstracttype(AbstractArray)
@test isabstracttype(AbstractSet{Int})
@test !isabstracttype(ReflectionExample)
@test !isabstracttype(Int)
@test !isabstracttype(TLayout)
@test !isprimitivetype(Union{})
@test !isprimitivetype(Union{Int,Float64})
@test !isprimitivetype(AbstractArray)
@test !isprimitivetype(AbstractSet{Int})
@test !isprimitivetype(ReflectionExample)
@test isprimitivetype(Int)
@test !isprimitivetype(TLayout)
@test !isstructtype(Union{})
@test !isstructtype(Union{Int,Float64})
@test !isstructtype(AbstractArray)
@test !isstructtype(AbstractSet{Int})
@test isstructtype(ReflectionExample)
@test !isstructtype(Int)
@test isstructtype(TLayout)
let
wrapperT(T) = Base.typename(T).wrapper
@test @inferred wrapperT(ReflectionExample{Float64, Int64}) == ReflectionExample
@test @inferred wrapperT(ReflectionExample{Float64, N} where N) == ReflectionExample
@test @inferred wrapperT(ReflectionExample{T, Int64} where T) == ReflectionExample
@test @inferred wrapperT(ReflectionExample) == ReflectionExample
@test @inferred wrapperT(Union{ReflectionExample{Union{},1},ReflectionExample{Float64,1}}) == ReflectionExample
@test_throws(ErrorException("typename does not apply to unions whose components have different typenames"),
Base.typename(Union{Int, Float64}))
end
# sizeof and nfields
@test sizeof(Int16) == 2
@test sizeof(ComplexF64) == 16
primitive type ParameterizedByte__{A,B} 8 end
@test sizeof(ParameterizedByte__) == 1
@test sizeof(nothing) == 0
@test sizeof(()) == 0
struct TypeWithIrrelevantParameter{T}
x::Int32
end
@test sizeof(TypeWithIrrelevantParameter) == sizeof(Int32)
@test sizeof(TypeWithIrrelevantParameter{Int8}) == sizeof(Int32)
@test sizeof(:abc) == 3
@test sizeof(Symbol("")) == 0
@test_throws(ErrorException("Abstract type Real does not have a definite size."),
sizeof(Real))
@test sizeof(Union{ComplexF32,ComplexF64}) == 16
@test sizeof(Union{Int8,UInt8}) == 1
@test_throws ErrorException sizeof(AbstractArray)
@test_throws ErrorException sizeof(Tuple)
@test_throws ErrorException sizeof(Tuple{Any,Any})
@test_throws ErrorException sizeof(String)
@test_throws ErrorException sizeof(Vector{Int})
@test_throws ErrorException sizeof(Symbol)
@test_throws ErrorException sizeof(Core.SimpleVector)
@test_throws ErrorException sizeof(Union{})
@test nfields((1,2)) == 2
@test nfields(()) == 0
@test nfields(nothing) == fieldcount(Nothing) == 0
@test nfields(1) == 0
@test_throws ArgumentError fieldcount(Union{})
@test fieldcount(Tuple{Any,Any,T} where T) == 3
@test fieldcount(Complex) == fieldcount(ComplexF32) == 2
@test fieldcount(Union{ComplexF32,ComplexF64}) == 2
@test fieldcount(Int) == 0
@test_throws(ArgumentError("type does not have a definite number of fields"),
fieldcount(Union{Complex,Pair}))
@test_throws ArgumentError fieldcount(Real)
@test_throws ArgumentError fieldcount(AbstractArray)
@test_throws ArgumentError fieldcount(Tuple{Any,Vararg{Any}})
# PR #22979
function test_similar_codeinfo(a, b)
@test a.code == b.code
@test a.slotnames == b.slotnames
@test a.slotflags == b.slotflags
end
@generated f22979(x...) = (y = 1; :(x[1] + x[2]))
let
x22979 = (1, 2.0, 3.0 + im)
T22979 = Tuple{typeof(f22979), typeof.(x22979)...}
world = Core.Compiler.get_world_counter()
match = Base._methods_by_ftype(T22979, -1, world)[1]
instance = Core.Compiler.specialize_method(match)
cinfo_generated = Core.Compiler.get_staged(instance, world)
@test_throws ErrorException Base.uncompressed_ir(match.method)
test_similar_codeinfo(code_lowered(f22979, typeof(x22979))[1], cinfo_generated)
cinfos = code_lowered(f22979, typeof.(x22979), generated=true)
@test length(cinfos) == 1
cinfo = cinfos[1]
test_similar_codeinfo(cinfo, cinfo_generated)
@test_throws ErrorException code_lowered(f22979, typeof.(x22979), generated=false)
end
module MethodDeletion
using Test, Random
# Deletion after compiling top-level call
bar1(x) = 1
bar1(x::Int) = 2
foo1(x) = bar1(x)
faz1(x) = foo1(x)
@test faz1(1) == 2
@test faz1(1.0) == 1
m = first(methods(bar1, Tuple{Int}))
Base.delete_method(m)
@test bar1(1) == 1
@test bar1(1.0) == 1
@test foo1(1) == 1
@test foo1(1.0) == 1
@test faz1(1) == 1
@test faz1(1.0) == 1
# Deletion after compiling middle-level call
bar2(x) = 1
bar2(x::Int) = 2
foo2(x) = bar2(x)
faz2(x) = foo2(x)
@test foo2(1) == 2
@test foo2(1.0) == 1
m = first(methods(bar2, Tuple{Int}))
Base.delete_method(m)
@test bar2(1.0) == 1
@test bar2(1) == 1
@test foo2(1) == 1
@test foo2(1.0) == 1
@test faz2(1) == 1
@test faz2(1.0) == 1
# Deletion after compiling low-level call
bar3(x) = 1
bar3(x::Int) = 2
foo3(x) = bar3(x)
faz3(x) = foo3(x)
@test bar3(1) == 2
@test bar3(1.0) == 1
m = first(methods(bar3, Tuple{Int}))
Base.delete_method(m)
@test bar3(1) == 1
@test bar3(1.0) == 1
@test foo3(1) == 1
@test foo3(1.0) == 1
@test faz3(1) == 1
@test faz3(1.0) == 1
# Deletion before any compilation
bar4(x) = 1
bar4(x::Int) = 2
foo4(x) = bar4(x)
faz4(x) = foo4(x)
m = first(methods(bar4, Tuple{Int}))
Base.delete_method(m)
@test bar4(1) == 1
@test bar4(1.0) == 1
@test foo4(1) == 1
@test foo4(1.0) == 1
@test faz4(1) == 1
@test faz4(1.0) == 1
# Deletion & invoke (issue #48802)
function f48802!(log, x::Integer)
log[] = "default"
return x + 1
end
function addmethod_48802()
@eval function f48802!(log, x::Int)
ret = invoke(f48802!, Tuple{Any, Integer}, log, x)
log[] = "specialized"
return ret
end
end
log = Ref{String}()
@test f48802!(log, 1) == 2
@test log[] == "default"
addmethod_48802()
@test f48802!(log, 1) == 2
@test log[] == "specialized"
Base.delete_method(which(f48802!, Tuple{Any, Int}))
@test f48802!(log, 1) == 2
@test log[] == "default"
addmethod_48802()
@test f48802!(log, 1) == 2
@test log[] == "specialized"
# Methods with keyword arguments
fookw(x; direction=:up) = direction
fookw(y::Int) = 2
@test fookw("string") === :up
@test fookw(1) == 2
m = collect(methods(fookw))[2]
Base.delete_method(m)
@test fookw(1) == 2
@test_throws MethodError fookw("string")
# functions with many methods
types = (Float64, Int32, String)
for T1 in types, T2 in types, T3 in types
@eval foomany(x::$T1, y::$T2, z::$T3) = y
end
@test foomany(Int32(5), "hello", 3.2) == "hello"
m = first(methods(foomany, Tuple{Int32, String, Float64}))
Base.delete_method(m)
@test_throws MethodError foomany(Int32(5), "hello", 3.2)
struct EmptyType end
Base.convert(::Type{EmptyType}, x::Integer) = EmptyType()
m = first(methods(convert, Tuple{Type{EmptyType}, Integer}))
Base.delete_method(m)
@test_throws MethodError convert(EmptyType, 1)
# parametric methods
parametric(A::Array{T,N}, i::Vararg{Int,N}) where {T,N} = N
@test parametric(rand(2,2), 1, 1) == 2
m = first(methods(parametric))
Base.delete_method(m)
@test_throws MethodError parametric(rand(2,2), 1, 1)
# Deletion and ambiguity detection
foo(::Int, ::Int) = 1
foo(::Real, ::Int) = 2
foo(::Int, ::Real) = 3
Base.delete_method(first(methods(foo)))
@test_throws MethodError foo(1, 1)
foo(::Int, ::Int) = 1
foo(1, 1)
Base.delete_method(first(methods(foo)))
@test_throws MethodError foo(1, 1)
# multiple deletions and ambiguities
typeparam(::Type{T}, a::Array{T}) where T<:AbstractFloat = 1
typeparam(::Type{T}, a::Array{T}) where T = 2
for mth in collect(methods(typeparam))
Base.delete_method(mth)
end
typeparam(::Type{T}, a::AbstractArray{T}) where T<:AbstractFloat = 1
typeparam(::Type{T}, a::AbstractArray{T}) where T = 2
@test typeparam(Float64, rand(2)) == 1
@test typeparam(Int, rand(Int, 2)) == 2
# prior ambiguities (issue #28899)
uambig(::Union{Int,Nothing}) = 1
uambig(::Union{Float64,Nothing}) = 2
@test uambig(1) == 1
@test uambig(1.0) == 2
@test_throws MethodError uambig(nothing)
m = which(uambig, Tuple{Int})
Base.delete_method(m)
@test_throws MethodError uambig(1)
@test uambig(1.0) == 2
@test uambig(nothing) == 2
end
module HasmethodKwargs
using Test
f(x::Int; y=3) = x + y
@test hasmethod(f, Tuple{Int})
@test hasmethod(f, Tuple{Int}, ())
@test hasmethod(f, Tuple{Int}, (:y,))
@test !hasmethod(f, Tuple{Int}, (:jeff,))
@test !hasmethod(f, Tuple{Int}, (:y,), world=typemin(UInt))
g(; b, c, a) = a + b + c
h(; kwargs...) = 4
for gh = (g, h)
@test hasmethod(gh, Tuple{})
@test hasmethod(gh, Tuple{}, ())
@test hasmethod(gh, Tuple{}, (:a,))
@test hasmethod(gh, Tuple{}, (:a, :b))
@test hasmethod(gh, Tuple{}, (:a, :b, :c))
end
@test !hasmethod(g, Tuple{}, (:a, :b, :c, :d))
@test hasmethod(h, Tuple{}, (:a, :b, :c, :d))
end
# issue #31353
function f31353(f, x::Array{<:Dict})
end
@test hasmethod(f31353, Tuple{Any, Array{D}} where D<:Dict)
@test !hasmethod(f31353, Tuple{Any, Array{D}} where D<:AbstractDict)
# issue #26267
module M26267
import Test
foo(x) = x
end
@test !(:Test in names(M26267, all=true, imported=false))
@test :Test in names(M26267, all=true, imported=true)
@test :Test in names(M26267, all=false, imported=true)
# issue #20872
f20872(::Val{N}, ::Val{N}) where {N} = true
f20872(::Val, ::Val) = false
@test which(f20872, Tuple{Val{N},Val{N}} where N).sig == Tuple{typeof(f20872), Val{N}, Val{N}} where N
@test which(f20872, Tuple{Val,Val}).sig == Tuple{typeof(f20872), Val, Val}
@test which(f20872, Tuple{Val,Val{N}} where N).sig == Tuple{typeof(f20872), Val, Val}
@test_throws ErrorException which(f20872, Tuple{Any,Val{N}} where N)
@test which(Tuple{typeof(f20872), Val{1}, Val{2}}).sig == Tuple{typeof(f20872), Val, Val}
module M29962 end
# make sure checking if a binding is deprecated does not resolve it
@test !Base.isdeprecated(M29962, :sin) && !Base.isbindingresolved(M29962, :sin)
# @locals
using Base: @locals
let
local x, y
global z
@test isempty(keys(@locals))
x = 1
@test @locals() == Dict{Symbol,Any}(:x=>1)
y = ""
@test @locals() == Dict{Symbol,Any}(:x=>1,:y=>"")
for i = 8:8
@test @locals() == Dict{Symbol,Any}(:x=>1,:y=>"",:i=>8)
end
for i = 42:42
local x
@test @locals() == Dict{Symbol,Any}(:y=>"",:i=>42)
end
@test @locals() == Dict{Symbol,Any}(:x=>1,:y=>"")
x = (y,)
@test @locals() == Dict{Symbol,Any}(:x=>("",),:y=>"")
end
function _test_at_locals1(::Any, ::Any)
x = 1
@test @locals() == Dict{Symbol,Any}(:x=>1)
end
_test_at_locals1(1,1)
function _test_at_locals2(a::Any, ::Any, c::T) where T
x = 2
@test @locals() == Dict{Symbol,Any}(:x=>2,:a=>a,:c=>c,:T=>typeof(c))
end
_test_at_locals2(1,1,"")
_test_at_locals2(1,1,0.5f0)
@testset "issue #31687" begin
import InteractiveUtils._dump_function
@noinline f31687_child(i) = f31687_nonexistent(i)
f31687_parent() = f31687_child(0)
params = Base.CodegenParams()
_dump_function(f31687_parent, Tuple{},
#=native=#false, #=wrapper=#false, #=raw=#true,
#=dump_module=#true, #=syntax=#:att, #=optimize=#false, :none,
#=binary=#false)
end
@test nameof(Any) === :Any
@test nameof(:) === :Colon
@test nameof(Core.Intrinsics.mul_int) === :mul_int
@test nameof(Core.Intrinsics.arraylen) === :arraylen
module TestMod33403
f(x) = 1
f(x::Int) = 2
g() = 3
module Sub
import ..TestMod33403: f
f(x::Char) = 3
end
end
@testset "methods with module" begin
using .TestMod33403: f, g
@test length(methods(f)) == 3
@test length(methods(f, (Int,))) == 1
@test length(methods(f, TestMod33403)) == 2
@test length(methods(f, [TestMod33403])) == 2
@test length(methods(f, (Int,), TestMod33403)) == 1
@test length(methods(f, (Int,), [TestMod33403])) == 1
@test length(methods(f, TestMod33403.Sub)) == 1
@test length(methods(f, [TestMod33403.Sub])) == 1
@test length(methods(f, (Char,), TestMod33403.Sub)) == 1
@test length(methods(f, (Int,), TestMod33403.Sub)) == 0
@test length(methods(g, ())) == 1
end
module BodyFunctionLookup
f1(x, y; a=1) = error("oops")
f2(f::Function, args...; kwargs...) = f1(args...; kwargs...)
end
@testset "bodyfunction" begin
m = first(methods(BodyFunctionLookup.f1))
f = Base.bodyfunction(m)
@test occursin("f1#", String(nameof(f)))
m = first(methods(BodyFunctionLookup.f2))
f = Base.bodyfunction(m)
@test f !== Core._apply_iterate
@test f !== Core._apply
@test occursin("f2#", String(nameof(f)))
end
@testset "code_typed(; world)" begin
mod = @eval module $(gensym()) end
@eval mod foo() = 1
world1 = Base.get_world_counter()
@test only(code_typed(mod.foo, ())).second == Int
@test only(code_typed(mod.foo, (); world=world1)).second == Int
@eval mod foo() = 2.
world2 = Base.get_world_counter()
@test only(code_typed(mod.foo, ())).second == Float64
@test only(code_typed(mod.foo, (); world=world1)).second == Int
@test only(code_typed(mod.foo, (); world=world2)).second == Float64
end
@testset "default_tt" begin
m = Module()
@eval m f1() = return
@test Base.default_tt(m.f1) == Tuple{}
@eval m f2(a) = return
@test Base.default_tt(m.f2) == Tuple{Any}
@eval m f3(a::Integer) = return
@test Base.default_tt(m.f3) == Tuple{Integer}
@eval m f4() = return
@eval m f4(a) = return
@test Base.default_tt(m.f4) == Tuple
end
Base.@assume_effects :terminates_locally function issue41694(x::Int)
res = 1
1 < x < 20 || throw("bad")
while x > 1
res *= x