Use a relative path instead of an absolute path

Author: ShiWeiHuH

test/test_data/fsi.jl renamed to test/IBM/test_FSI_job.jl

@@ -1,5 +1,6 @@
-using HyperFSI
-
+@testitem "FSI_job" begin
+    using HyperFSI: FSI_job
+        
     set = KitBase.Setup(
         case = "rectangle",       # Case identifier
         space = "2d0f0v",         # 2D simulation space
@@ -18,9 +19,11 @@ using HyperFSI
         density = 0.603,          # Reference density [kg/m³]
         pressure = 52500 * 2,     # Reference pressure [Pa]
         k = 1.0                   # Thermal diffusion factor
-  )
+    )
+
     ps = KitBase.PSpace2D(-3.0, 3.0, 140, -2.0, 2.0, 90, 1, 1)
     vs = nothing
+
     U_∞ = 0.8 * KitBase.sound_speed(1.0, 1.4)  # Freestream velocity
     Re = 2000.0                                # Reynolds number
     gas = KitBase.Gas(
@@ -42,36 +45,50 @@ using HyperFSI
     ctr, a1face, a2face = KitBase.init_fvm(ks; structarray = true)
     dtf = KitBase.timestep(ks, ctr, 0.0) * ref.time  
     fv = Flowstep(steps=1, stepsize=dtf) 
-    geo = Post2D("Ring.inp", ["Line5","Line6","Line7","Line8"])  
-    bc_index = geo.bc_nodes  # Boundary node indices
+
+    mesh_file = joinpath(@__DIR__, "..", "test_data", "Ring.inp")
+    geo = Post2D(mesh_file, ["Line5","Line6","Line7","Line8"])  
     pos = geo.pos            # Node positions [m]
     area = geo.area          # Nodal areas [m²]
     height = sqrt(minimum(area))  # Characteristic length
     vol = height * area      # Nodal volumes [m³]
     body = Peridynamics.Body(BBTMaterial(), pos, vol)
+    Peridynamics.material!(body; horizon=4height, E=2.0e11, rho=1e3, epsilon_c=1e-2, kc=11400.0, aph=1.0e-6, cv=1.0, rft=273, 
+            h=25.0, hσ=5.73e-8, hϵ=0.9, tem∞=0.0, thick=height)
+    bcst = Bcstruct(pos) #
 
-    Peridynamics.material!(body;
-        horizon = 4*height,    # Peridynamic horizon (4× characteristic length)
-        E = 2.0e11,            # Elastic modulus
-        rho = 1e3,             # Material density
-        epsilon_c = 1e-2,      # Critical fracture strain
-        kc = 11400.0,          # Thermal conductivity
-        aph = 1.0e-6,          # Thermal expansion
-        cv = 1.0,              # Heat capacity
-        rft = 273,             # Reference temperature [K]
-        h = 25.0,              # Convection coefficient [W/(m²·K)]
-        hσ = 5.73e-8,          # Stefan-Boltzmann Constant 
-        hϵ = 0.9,              # Emissivity
-        tem∞ = 0.0,            # Ambient temperature [K]
-        thick = height         # Thickness for 2D
-    )
-    bcst = Bcstruct(pos)  
-
-    hsource_databc!(body, bcst.hsource, :all_points)  
+    hsource_databc!(body, bcst.hsource, :all_points)
     vv = Thermstep(steps=1)  
     job = FSI_job(ks, body, fv, vv;
         path = joinpath(@__DIR__, "cylinder"), # - Output directory "./cylinder"
         freq = 1,                              # Output frequency
         fields = (:displacement, :temperature, :damage)# - Output fields
     )
-    ret = FSI_submit(job, bcst, geo, "T"; ref = ref)
+
+    @test job isa FSI_job
+    @test job.f_time_solver isa Flowstep
+    @test job.s_time_solver isa Thermstep
+    @test job.spatial_setup isa Peridynamics.Body
+    @test job.flow_setup isa KitBase.SolverSet
+    @test job.options.export_allowed == true
+    @test job.options.freq == 1
+    @test job.options.root == joinpath(@__DIR__, "cylinder")
+    @test job.options.vtk == joinpath(@__DIR__, "cylinder/structure")
+    @test job.options.fields == [:displacement, :temperature, :damage]
+    @test job.options.flow == joinpath(@__DIR__, "cylinder/flow")
+end
+
+@testitem "Bcstruct" begin
+    using HyperFSI: Bcstruct
+
+    pos = [ -0.25   0.25  -0.25  0.25
+             -0.25  -0.25   0.25  0.25
+               0.0    0.0    0.0   0.0]
+
+    bc = Bcstruct(pos) 
+    @test bc isa Bcstruct
+    @test size(bc.hsource) == (1, 4)
+    @test size(bc.pressure) == (3, 4)
+    @test all(bc.hsource .== 0.0)
+    @test all(bc.pressure .== 0.0)
+end

test/IBM/test_post_2d.jl

@@ -1,6 +1,6 @@
 @testitem "Post2D" begin
     using  HyperFSI: Post2D
-    mesh_file = "/Users/shiweihu/Codes/Develops/HyperFSI/test/test_data/squ.inp"
+    mesh_file = joinpath(@__DIR__, "..", "test_data", "squ.inp")
     geo = Post2D(mesh_file, ["Line1", "Line2", "Line3", "Line4"])
     pos0 = [ -0.25   0.25  -0.25  0.25
              -0.25  -0.25   0.25  0.25

test/IBM/test_post_3d.jl

@@ -1,6 +1,6 @@
 @testitem "Post3D" begin
     using  HyperFSI: Post3D
-    mesh_file = "/Users/shiweihu/Codes/Develops/HyperFSI/test/test_data/vol.inp"
+    mesh_file = joinpath(@__DIR__, "..", "test_data", "vol.inp")
     geo = Post3D(mesh_file, ["Surface1", "Surface2", "Surface3", "Surface4", "Surface5", "Surface6"])
     pos0 = [ -0.25   0.25  -0.25   0.25  -0.25   0.25  -0.25  0.25
              -0.25  -0.25   0.25   0.25  -0.25  -0.25   0.25  0.25

test/coupling_solvers/test_FSI_job.jl

@@ -46,7 +46,7 @@
     dtf = KitBase.timestep(ks, ctr, 0.0) * ref.time  
     fv = Flowstep(steps=1, stepsize=dtf) 
 
-    mesh_file = "/Users/shiweihu/Codes/Develops/HyperFSI/test/test_data/Ring.inp"
+    mesh_file = joinpath(@__DIR__, "..", "test_data", "Ring.inp")
     geo = Post2D(mesh_file, ["Line5","Line6","Line7","Line8"])  
     pos = geo.pos            # Node positions [m]
     area = geo.area          # Nodal areas [m²]

test/coupling_solvers/test_FSI_submit.jl

@@ -46,7 +46,7 @@
     dtf = KitBase.timestep(ks, ctr, 0.0) * ref.time  
     fv = Flowstep(steps=1, stepsize=dtf) 
 
-    mesh_file = "/Users/shiweihu/Codes/Develops/HyperFSI/test/test_data/Ring.inp"
+    mesh_file = joinpath(@__DIR__, "..", "test_data", "Ring.inp") 
     geo = Post2D(mesh_file, ["Line5","Line6","Line7","Line8"])  
     pos = geo.pos            # Node positions [m]
     area = geo.area          # Nodal areas [m²]