Fix test compatibility for different module contexts

The tests were failing in CI because JET creates virtual modules that
cause type equality checks to fail. Updated tests to use helper functions
that check type names and parameters instead of direct equality.

🤖 Generated with Claude Code

Co-Authored-By: Claude <noreply@anthropic.com>

Author: ChrisRackauckas

lib/OrdinaryDiffEqFunctionMap/test/discrete_problem_defaults.jl

@@ -1,7 +1,19 @@
-using OrdinaryDiffEqFunctionMap
-using OrdinaryDiffEqCore
+import OrdinaryDiffEqFunctionMap
+import OrdinaryDiffEqCore
 using Test
 using SciMLBase
+using SciMLBase: solve, init, DiscreteProblem
+
+const FunctionMap = OrdinaryDiffEqFunctionMap.FunctionMap
+
+# Helper functions to check algorithm properties regardless of module context
+is_functionmap(alg) = typeof(alg).name.name == :FunctionMap
+function get_scale_by_time(alg)
+    # Access the type parameter directly since it's FunctionMap{scale_by_time}
+    T = typeof(alg)
+    # The parameter is stored as a type parameter
+    return T.parameters[1]
+end
 
 @testset "DiscreteProblem Default Algorithm" begin
     # Test scalar DiscreteProblem
@@ -11,14 +23,14 @@ using SciMLBase
     @testset "Scalar DiscreteProblem" begin
         # Test solve without explicit algorithm
         sol = solve(prob_scalar)
-        @test typeof(sol.alg).name.name == :FunctionMap
-        @test sol.alg == FunctionMap()
+        @test is_functionmap(sol.alg)
+        @test get_scale_by_time(sol.alg) == false
         @test length(sol.u) > 1
 
         # Test init without explicit algorithm
         integrator = init(prob_scalar)
-        @test typeof(integrator.alg).name.name == :FunctionMap
-        @test integrator.alg == FunctionMap()
+        @test is_functionmap(integrator.alg)
+        @test get_scale_by_time(integrator.alg) == false
     end
 
     # Test array DiscreteProblem
@@ -31,29 +43,33 @@ using SciMLBase
     @testset "Array DiscreteProblem" begin
         # Test solve without explicit algorithm
         sol = solve(prob_array)
-        @test typeof(sol.alg).name.name == :FunctionMap
-        @test sol.alg == FunctionMap()
+        @test is_functionmap(sol.alg)
+        @test get_scale_by_time(sol.alg) == false
         @test length(sol.u) > 1
 
         # Test init without explicit algorithm
         integrator = init(prob_array)
-        @test typeof(integrator.alg).name.name == :FunctionMap
-        @test integrator.alg == FunctionMap()
+        @test is_functionmap(integrator.alg)
+        @test get_scale_by_time(integrator.alg) == false
     end
 
     # Test that explicit algorithm specification still works
     @testset "Explicit FunctionMap specification" begin
         sol1 = solve(prob_scalar, FunctionMap())
-        @test sol1.alg == FunctionMap(scale_by_time=false)
+        @test is_functionmap(sol1.alg)
+        @test get_scale_by_time(sol1.alg) == false
 
         sol2 = solve(prob_scalar, FunctionMap(scale_by_time=true), dt=0.1)
-        @test sol2.alg == FunctionMap(scale_by_time=true)
+        @test is_functionmap(sol2.alg)
+        @test get_scale_by_time(sol2.alg) == true
 
         integrator1 = init(prob_scalar, FunctionMap())
-        @test integrator1.alg == FunctionMap(scale_by_time=false)
+        @test is_functionmap(integrator1.alg)
+        @test get_scale_by_time(integrator1.alg) == false
 
         integrator2 = init(prob_scalar, FunctionMap(scale_by_time=true), dt=0.1)
-        @test integrator2.alg == FunctionMap(scale_by_time=true)
+        @test is_functionmap(integrator2.alg)
+        @test get_scale_by_time(integrator2.alg) == true
     end
 
     # Test that the default behaves correctly with different problem types
@@ -66,10 +82,10 @@ using SciMLBase
         prob_int = DiscreteProblem(henon_map!, [0.5, 0.5], (0, 10))
 
         sol = solve(prob_int)
-        @test typeof(sol.alg).name.name == :FunctionMap
+        @test is_functionmap(sol.alg)
         @test eltype(sol.t) <: Integer
 
         integrator = init(prob_int)
-        @test typeof(integrator.alg).name.name == :FunctionMap
+        @test is_functionmap(integrator.alg)
     end
 end