tests/test.sh exit code (0 → resolved); the classification below is post-hoc and cannot change it.{
"file_path": "/home/user/task/scenes/car.tscn"
}1 [gd_scene load_steps=1 format=3 uid="uid://codexcarsetupscene"] 2 3 [node name="Car" type="CharacterBody2D"] 4
ls -la /home/user/task/assets/ 2>/dev/null; echo "---"; ls -la /home/user/task/scenes/; echo "---PROJECT---"; cat /home/user/task/project.godot 2>/dev/null | head -50
{
"description": "List assets and project files"
}total 108
drwxr-xr-x 2 user user 4096 Jun 21 02:10 .
drwxr-xr-x 6 user user 128 Jun 21 02:10 ..
-rw-r--r-- 1 user user 102392 Jun 20 23:26 spritesheet_vehicles.png
-rw-r--r-- 1 user user 800 Jun 21 02:10 spritesheet_vehicles.png.import
---
total 9
drwxr-xr-x 2 user user 60 Jun 20 23:26 .
drwxr-xr-x 6 user user 128 Jun 21 02:10 ..
-rw-r--r-- 1 user user 106 Jun 20 23:26 car.tscn
-rw-r--r-- 1 user user 236 Jun 20 23:26 main.tscn
-rw-r--r-- 1 user user 371 Jun 20 23:26 test.tscn
---PROJECT---
; Engine configuration file.
; It's best edited using the editor UI and not directly,
; since the parameters that go here are not all obvious.
;
; Format:
; [section] ; section goes between []
; param=value ; assign values to parameters
config_version=5
[application]
config/name="Car Scene Assembly"
config/description="Create the CharacterBody2D car hierarchy described in the KidsCanCode steering tutorial"
run/main_scene="res://scenes/test.tscn"
config/features=PackedStringArray("4.5")
[rendering]
renderer/rendering_method="gl_compatibility"
[stdout]
total 108
drwxr-xr-x 2 user user 4096 Jun 21 02:10 .
drwxr-xr-x 6 user user 128 Jun 21 02:10 ..
-rw-r--r-- 1 user user 102392 Jun 20 23:26 spritesheet_vehicles.png
-rw-r--r-- 1 user user 800 Jun 21 02:10 spritesheet_vehicles.png.import
---
total 9
drwxr-xr-x 2 user user 60 Jun 20 23:26 .
drwxr-xr-x 6 user user 128 Jun 21 02:10 ..
-rw-r--r-- 1 user user 106 Jun 20 23:26 car.tscn
-rw-r--r-- 1 user user 236 Jun 20 23:26 main.tscn
-rw-r--r-- 1 user user 371 Jun 20 23:26 test.tscn
---PROJECT---
; Engine configuration file.
; It's best edited using the editor UI and not directly,
; since the parameters that go here are not all obvious.
;
; Format:
; [section] ; section goes between []
; param=value ; assign values to parameters
config_version=5
[application]
config/name="Car Scene Assembly"
config/description="Create the CharacterBody2D car hierarchy described in the KidsCanCode steering tutorial"
run/main_scene="res://scenes/test.tscn"
config/features=PackedStringArray("4.5")
[rendering]
renderer/rendering_method="gl_compatibility"cat /home/user/task/assets/spritesheet_vehicles.png.import; echo "---MAIN---"; cat /home/user/task/scenes/main.tscn; echo "---TEST---"; cat /home/user/task/scenes/test.tscn
{
"description": "Read import and scene files"
}[remap]
importer="texture"
type="CompressedTexture2D"
uid="uid://4j3r3nq5e1ub"
path="res://.godot/imported/spritesheet_vehicles.png-e16a3162cc0edb8275366b9e44a79438.ctex"
metadata={
"vram_texture": false
}
[deps]
source_file="res://assets/spritesheet_vehicles.png"
dest_files=["res://.godot/imported/spritesheet_vehicles.png-e16a3162cc0edb8275366b9e44a79438.ctex"]
[params]
compress/mode=0
compress/high_quality=false
compress/lossy_quality=0.7
compress/hdr_compression=1
compress/normal_map=0
compress/channel_pack=0
mipmaps/generate=false
mipmaps/limit=-1
roughness/mode=0
roughness/src_normal=""
process/fix_alpha_border=true
process/premult_alpha=false
process/normal_map_invert_y=false
process/hdr_as_srgb=false
process/hdr_clamp_exposure=false
process/size_limit=0
detect_3d/compress_to=1
---MAIN---
[gd_scene load_steps=2 format=3 uid="uid://codexcarsetupmain"]
[ext_resource type="PackedScene" path="res://scenes/car.tscn" id="1_j7vsa"]
[node name="Main" type="Node2D"]
[node name="Car" parent="." instance=ExtResource("1_j7vsa")]
---TEST---
[gd_scene load_steps=3 format=3 uid="uid://dr7g1txs5kp6i"]
[ext_resource type="Script" path="res://scripts/test.gd" id="1_bl13t"]
[ext_resource type="PackedScene" uid="uid://codexcarsetupmain" path="res://scenes/main.tscn" id="2_iyx0m"]
[node name="TestRunner" type="Node"]
script = ExtResource("1_bl13t")
[node name="Main" parent="." instance=ExtResource("2_iyx0m")]
[stdout]
[remap]
importer="texture"
type="CompressedTexture2D"
uid="uid://4j3r3nq5e1ub"
path="res://.godot/imported/spritesheet_vehicles.png-e16a3162cc0edb8275366b9e44a79438.ctex"
metadata={
"vram_texture": false
}
[deps]
source_file="res://assets/spritesheet_vehicles.png"
dest_files=["res://.godot/imported/spritesheet_vehicles.png-e16a3162cc0edb8275366b9e44a79438.ctex"]
[params]
compress/mode=0
compress/high_quality=false
compress/lossy_quality=0.7
compress/hdr_compression=1
compress/normal_map=0
compress/channel_pack=0
mipmaps/generate=false
mipmaps/limit=-1
roughness/mode=0
roughness/src_normal=""
process/fix_alpha_border=true
process/premult_alpha=false
process/normal_map_invert_y=false
process/hdr_as_srgb=false
process/hdr_clamp_exposure=false
process/size_limit=0
detect_3d/compress_to=1
---MAIN---
[gd_scene load_steps=2 format=3 uid="uid://codexcarsetupmain"]
[ext_resource type="PackedScene" path="res://scenes/car.tscn" id="1_j7vsa"]
[node name="Main" type="Node2D"]
[node name="Car" parent="." instance=ExtResource("1_j7vsa")]
---TEST---
[gd_scene load_steps=3 format=3 uid="uid://dr7g1txs5kp6i"]
[ext_resource type="Script" path="res://scripts/test.gd" id="1_bl13t"]
[ext_resource type="PackedScene" uid="uid://codexcarsetupmain" path="res://scenes/main.tscn" id="2_iyx0m"]
[node name="TestRunner" type="Node"]
script = ExtResource("1_bl13t")
[node name="Main" parent="." instance=ExtResource("2_iyx0m")]{
"file_path": "/home/user/task/assets/spritesheet_vehicles.png"
}{"type": "image", "source": {"type": "base64", "data": "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…[truncated]python3 -c "from PIL import Image; im=Image.open('assets/spritesheet_vehicles.png'); print(im.size)" 2>/dev/null || file assets/spritesheet_vehicles.png
{
"description": "Get image dimensions"
}Exit code 127 /bin/bash: line 1: file: command not found [error] tool reported failure
python3 - <<'EOF'
import struct
with open('assets/spritesheet_vehicles.png','rb') as f:
data=f.read(24)
w,h=struct.unpack('>II', data[16:24])
print(w,h)
EOF
{
"description": "Read PNG dimensions from header"
}1024 512 [stdout] 1024 512
pip install pillow -q 2>/dev/null; python3 - <<'EOF'
from PIL import Image
im=Image.open('assets/spritesheet_vehicles.png').convert('RGBA')
W,H=im.size
px=im.load()
# find columns and rows that are fully transparent to detect gaps
def col_empty(x):
for y in range(H):
if px[x,y][3]>10: return False
return True
def row_empty(y):
for x in range(W):
if px[x,y][3]>10: return False
return True
cols=[col_empty(x) for x in range(W)]
rows=[row_empty(y) for y in range(H)]
# find runs of non-empty columns
def segments(flags):
segs=[]; start=None
for i,f in enumerate(flags):
if not f and start is None: start=i
if f and start is not None: segs.append((start,i-1)); start=None
if start is not None: segs.append((start,len(flags)-1))
return segs
print("col segs:", segments(cols))
print("row segs:", segments(rows))
EOF
{
"description": "Detect sprite grid segments via alpha"
}Exit code 1 Traceback (most recent call last): File "<stdin>", line 1, in <module> ModuleNotFoundError: No module named 'PIL' [error] tool reported failure
pip install pillow 2>&1 | tail -2; python3 -c "import PIL; print('ok')"
{
"description": "Install Pillow"
}Exit code 1 /bin/bash: line 1: pip: command not found Traceback (most recent call last): File "<string>", line 1, in <module> ModuleNotFoundError: No module named 'PIL' [error] tool reported failure
python3 - <<'EOF'
import zlib, struct
f=open('assets/spritesheet_vehicles.png','rb'); data=f.read()
assert data[:8]==b'\x89PNG\r\n\x1a\n'
pos=8; idat=b''; W=H=bd=ct=None
while pos<len(data):
ln=struct.unpack('>I',data[pos:pos+4])[0]; typ=data[pos+4:pos+8]
chunk=data[pos+8:pos+8+ln]
if typ==b'IHDR':
W,H,bd,ct=struct.unpack('>IIBB',chunk[:10])
elif typ==b'IDAT':
idat+=chunk
pos+=12+ln
print("W,H,bitdepth,colortype",W,H,bd,ct)
raw=zlib.decompress(idat)
channels={0:1,2:3,3:1,4:2,6:4}[ct]
bpp=channels*(bd//8)
stride=W*bpp
out=bytearray()
prev=bytearray(stride)
i=0
def paeth(a,b,c):
p=a+b-c; pa=abs(p-a);pb=abs(p-b);pc=abs(p-c)
return a if pa<=pb and pa<=pc else (b if pb<=pc else c)
for y in range(H):
ft=raw[i]; i+=1
line=bytearray(raw[i:i+stride]); i+=stride
for x in range(stride):
a=line[x-bpp] if x>=bpp else 0
b=prev[x]
c=prev[x-bpp] if x>=bpp else 0
if ft==1: line[x]=(line[x]+a)&255
elif ft==2: line[x]=(line[x]+b)&255
elif ft==3: line[x]=(line[x]+((a+b)>>1))&255
elif ft==4: line[x]=(line[x]+paeth(a,b,c))&255
out+=line
prev=line
# alpha index
aidx=3 if ct==6 else None
def alpha(x,y):
return out[(y*W+x)*bpp+aidx]
import json
def col_empty(x):
return all(alpha(x,y)<=10 for y in range(H))
def row_empty(y):
return all(alpha(x,y)<=10 for x in range(W))
cols=[col_empty(x) for x in range(W)]
rows=[row_empty(y) for y in range(H)]
def segs(flags):
s=[];st=None
for i,fl in enumerate(flags):
if not fl and st is None: st=i
if fl and st is not None: s.append((st,i-1));st=None
if st is not None: s.append((st,len(flags)-1))
return s
print("COLS",segs(cols))
print("ROWS",segs(rows))
# save out for reuse
with open('/tmp/alpha.bin','wb') as fo:
for y in range(H):
for x in range(W):
fo.write(bytes([alpha(x,y)]))
print("saved")
EOF
{
"description": "Decode PNG and find sprite grid"
}W,H,bitdepth,colortype 1024 512 8 6 COLS [(0, 689), (1023, 1023)] ROWS [(0, 511)] saved [stdout] W,H,bitdepth,colortype 1024 512 8 6 COLS [(0, 689), (1023, 1023)] ROWS [(0, 511)] saved
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
mask=[1 if a[i]>10 else 0 for i in range(W*H)]
# connected components (4-conn) via BFS, iterative
from collections import deque
comp=[-1]*(W*H)
boxes=[]
cid=0
for sy in range(H):
for sx in range(W):
idx=sy*W+sx
if mask[idx] and comp[idx]==-1:
q=deque([idx]); comp[idx]=cid
minx=maxx=sx; miny=maxy=sy; cnt=0
while q:
p=q.popleft(); y,x=divmod(p,W); cnt+=1
if x<minx:minx=x
if x>maxx:maxx=x
if y<miny:miny=y
if y>maxy:maxy=y
for dx,dy in((1,0),(-1,0),(0,1),(0,-1)):
nx,ny=x+dx,y+dy
if 0<=nx<W and 0<=ny<H:
np=ny*W+nx
if mask[np] and comp[np]==-1:
comp[np]=cid; q.append(np)
boxes.append((minx,miny,maxx,maxy,cnt))
cid+=1
# filter sizable
boxes=[b for b in boxes if b[4]>500]
boxes.sort(key=lambda b:(b[1],b[0]))
print("num comps",len(boxes))
for b in boxes[:20]:
print("x",b[0],"y",b[1],"w",b[2]-b[0]+1,"h",b[3]-b[1]+1,"px",b[4])
EOF
{
"description": "Connected component bounding boxes"
}num comps 2 x 0 y 0 w 690 h 512 px 291824 x 289 y 398 w 46 h 102 px 3232 [stdout] num comps 2 x 0 y 0 w 690 h 512 px 291824 x 289 y 398 w 46 h 102 px 3232
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def colsum(x,y0,y1): return sum(1 for y in range(y0,y1) if a[y*W+x]>10)
def rowsum(y,x0,x1): return sum(1 for x in range(x0,x1) if a[y*W+x]>10)
# Top-left region: examine columns 0..130 over rows 0..130
print("column density rows0-130:")
for x in range(0,140):
c=colsum(x,0,130)
print(x,c)
EOF
{
"description": "Column density top-left"
}column density rows0-130: 0 33 1 64 2 115 3 118 4 120 5 122 6 124 7 125 8 126 9 127 10 127 11 127 12 128 13 129 14 129 15 129 16 129 17 129 18 129 19 129 20 129 21 129 22 130 23 130 24 130 25 130 26 130 27 130 28 130 29 130 30 130 31 130 32 130 33 130 34 130 35 130 36 130 37 130 38 130 39 130 40 130 41 130 42 130 43 130 44 130 45 130 46 130 47 130 48 130 49 129 50 129 51 129 52 129 53 129 54 129 55 129 56 129 57 129 58 128 59 127 60 127 61 127 62 126 63 125 64 124 65 122 66 120 67 119 68 115 69 63 70 36 71 36 72 33 73 33 74 64 75 115 76 118 77 120 78 122 79 124 80 125 81 126 82 127 83 127 84 127 85 128 86 129 87 129 88 129 89 129 90 129 91 129 92 129 93 129 94 129 95 130 96 130 97 130 98 130 99 130 100 130 101 130 102 130 103 130 104 130 105 130 106 130 107 130 108 130 109 130 110 130 111 130 112 130 113 130 114 130 115 130 116 130 117 130 118 130 119 130 120 130 121 130 122 129 123 129 124 129 125 129 126 129 127 129 128 129 129 129 130 129 131 128 132 127 133 127 134 127 135 126 136 125 137 124 138 122 139 120 [stdout] column density rows0-130: 0 33 1 64 2 115 3 118 4 120 5 122 6 124 7 125 8 126 9 127 10 127 11 127 12 128 13 129 14 129 15 129 16 129 17 129 18 129 19 129 20 129 21 129 22 130 23 130 24 130 25 130 26 130 27 130 28 130 29 130 30 130 31 130 32 130 33 130 34 130 35 130 36 130 37 130 38 130 39 130 40 130 41 130 42 130 43 130 44 130 45 130 46 130 47 130 48 130 49 129 50 129 51 129 52 129 53 129 54 129 55 129 56 129 57 129 58 128 59 127 60 127 61 127 62 126 63 125 64 124 65 122 66 120 67 119 68 115 69 63 70 36 71 36 72 33 73 33 74 64 75 115 76 118 77 120 78 122 79 124 80 125 81 126 82 127 83 127 84 127 85 128 86 129 87 129 88 129 89 129 90 129 91 129 92 129 93 129 94 129 95 130 96 130 97 130 98 130 99 130 100 130 101 130 102 130 103 130 104 130 105 130 106 130 107 130 108 130 109 130 110 130 111 130 112 130 113 130 114 130 115 130 116 130 117 130 118 130 119 130 120 130 121 130 122 129 123 129 124 129 125 129 126 129 127 129 128 129 129 129 130 129 131 128 132 127 133 127 134 127 135 126 136 125 137 124 138 122 139 120
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def rowsum(y,x0,x1): return sum(1 for x in range(x0,x1) if a[y*W+x]>10)
print("row density cols0-69:")
for y in range(0,150):
print(y, rowsum(y,0,69))
EOF
{
"description": "Row density of first car"
}row density cols0-69: 0 27 1 47 2 53 3 57 4 59 5 61 6 63 7 65 8 65 9 67 10 67 11 67 12 68 13 68 14 68 15 68 16 68 17 69 18 69 19 69 20 69 21 69 22 69 23 69 24 69 25 69 26 69 27 69 28 69 29 69 30 69 31 69 32 68 33 68 34 68 35 68 36 68 37 68 38 68 39 68 40 68 41 68 42 68 43 67 44 67 45 67 46 67 47 67 48 67 49 67 50 67 51 67 52 67 53 67 54 67 55 67 56 67 57 67 58 67 59 67 60 67 61 67 62 67 63 67 64 67 65 67 66 67 67 67 68 67 69 67 70 67 71 67 72 67 73 67 74 67 75 67 76 67 77 67 78 67 79 67 80 67 81 67 82 67 83 67 84 67 85 67 86 67 87 67 88 67 89 68 90 68 91 68 92 68 93 68 94 68 95 68 96 68 97 68 98 68 99 68 100 68 101 69 102 69 103 69 104 69 105 69 106 69 107 69 108 69 109 69 110 69 111 69 112 69 113 69 114 69 115 69 116 69 117 69 118 69 119 68 120 68 121 68 122 67 123 67 124 65 125 64 126 61 127 59 128 55 129 45 130 26 131 26 132 27 133 27 134 47 135 53 136 57 137 59 138 61 139 63 140 65 141 65 142 67 143 67 144 67 145 68 146 68 147 68 148 68 149 68 [stdout] row density cols0-69: 0 27 1 47 2 53 3 57 4 59 5 61 6 63 7 65 8 65 9 67 10 67 11 67 12 68 13 68 14 68 15 68 16 68 17 69 18 69 19 69 20 69 21 69 22 69 23 69 24 69 25 69 26 69 27 69 28 69 29 69 30 69 31 69 32 68 33 68 34 68 35 68 36 68 37 68 38 68 39 68 40 68 41 68 42 68 43 67 44 67 45 67 46 67 47 67 48 67 49 67 50 67 51 67 52 67 53 67 54 67 55 67 56 67 57 67 58 67 59 67 60 67 61 67 62 67 63 67 64 67 65 67 66 67 67 67 68 67 69 67 70 67 71 67 72 67 73 67 74 67 75 67 76 67 77 67 78 67 79 67 80 67 81 67 82 67 83 67 84 67 85 67 86 67 87 67 88 67 89 68 90 68 91 68 92 68 93 68 94 68 95 68 96 68 97 68 98 68 99 68 100 68 101 69 102 69 103 69 104 69 105 69 106 69 107 69 108 69 109 69 110 69 111 69 112 69 113 69 114 69 115 69 116 69 117 69 118 69 119 68 120 68 121 68 122 67 123 67 124 65 125 64 126 61 127 59 128 55 129 45 130 26 131 26 132 27 133 27 134 47 135 53 136 57 137 59 138 61 139 63 140 65 141 65 142 67 143 67 144 67 145 68 146 68 147 68 148 68 149 68
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
# precise bbox within window
minx=miny=10**9;maxx=maxy=-1
for y in range(0,133):
for x in range(0,73):
if A(x,y)>10:
if x<minx:minx=x
if x>maxx:maxx=x
if y<miny:miny=y
if y>maxy:maxy=y
print("bbox",minx,miny,maxx,maxy,"w",maxx-minx+1,"h",maxy-miny+1)
EOF
{
"description": "Precise first-car bbox"
}bbox 0 0 72 132 w 73 h 133 [stdout] bbox 0 0 72 132 w 73 h 133
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
for y in [10,65,120]:
print("y=%d:"%y, [A(x,y) for x in range(60,82)])
EOF
{
"description": "Inspect alpha at car boundary"
}y=10: [255, 255, 255, 255, 255, 255, 255, 255, 159, 0, 0, 0, 0, 0, 0, 127, 255, 255, 255, 255, 255, 255] y=65: [255, 255, 255, 255, 255, 255, 255, 255, 63, 0, 0, 0, 0, 0, 0, 63, 255, 255, 255, 255, 255, 255] y=120: [255, 255, 255, 255, 255, 255, 255, 255, 255, 223, 0, 0, 0, 0, 159, 255, 255, 255, 255, 255, 255, 255] [stdout] y=10: [255, 255, 255, 255, 255, 255, 255, 255, 159, 0, 0, 0, 0, 0, 0, 127, 255, 255, 255, 255, 255, 255] y=65: [255, 255, 255, 255, 255, 255, 255, 255, 63, 0, 0, 0, 0, 0, 0, 63, 255, 255, 255, 255, 255, 255] y=120: [255, 255, 255, 255, 255, 255, 255, 255, 255, 223, 0, 0, 0, 0, 159, 255, 255, 255, 255, 255, 255, 255]
python3 - <<'EOF'
from collections import deque
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
seen=set()
start=(35,65)
q=deque([start]); seen.add(start)
minx=miny=10**9;maxx=maxy=-1
while q:
x,y=q.popleft()
if x<minx:minx=x
if x>maxx:maxx=x
if y<miny:miny=y
if y>maxy:maxy=y
for dx,dy in((1,0),(-1,0),(0,1),(0,-1)):
nx,ny=x+dx,y+dy
if 0<=nx<W and 0<=ny<H and (nx,ny) not in seen and A(nx,ny)>10:
seen.add((nx,ny)); q.append((nx,ny))
print("car1 flood bbox",minx,miny,maxx,maxy,"w",maxx-minx+1,"h",maxy-miny+1,"px",len(seen))
EOF
{
"description": "Flood fill car1 tight bbox"
}car1 flood bbox 0 0 689 511 w 690 h 512 px 291824 [stdout] car1 flood bbox 0 0 689 511 w 690 h 512 px 291824
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
# car1 right edge per row (scan from x=0, find first run of >=3 zeros)
maxright=0
for y in range(0,131):
last=-1
x=0
while x<80:
if A(x,y)>10: last=x
# check zero run
if A(x,y)<=10 and all(A(min(x+k,W-1),y)<=10 for k in range(3)):
break
x+=1
if last>maxright: maxright=last
# bottom edge per col
maxbot=0
for x in range(0,maxright+1):
last=-1; y=0
while y<160:
if A(x,y)>10: last=y
if A(x,y)<=10 and all(A(x,min(y+k,H-1))<=10 for k in range(3)):
break
y+=1
if last>maxbot: maxbot=last
print("car1 right edge",maxright,"bottom edge",maxbot)
print("=> region x=0 y=0 w=%d h=%d"%(maxright+1,maxbot+1))
EOF
{
"description": "Compute car1 right/bottom edges"
}car1 right edge 79 bottom edge 159 => region x=0 y=0 w=80 h=160 [stdout] car1 right edge 79 bottom edge 159 => region x=0 y=0 w=80 h=160
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
print("center col x=35, y 124..140:", [(y,A(35,y)) for y in range(124,140)])
print("col x=10, y 124..140:", [(y,A(10,y)) for y in range(124,140)])
print("right col x=69, y 0..132 nonzero rows:", [y for y in range(0,134) if A(69,y)>10][:5],"...",[y for y in range(0,134) if A(69,y)>10][-5:])
print("col x=70 nonzero in 0..132:", [y for y in range(0,134) if A(70,y)>10])
EOF
{
"description": "Inspect car1 bottom and right precisely"
}center col x=35, y 124..140: [(124, 255), (125, 255), (126, 255), (127, 255), (128, 255), (129, 255), (130, 127), (131, 127), (132, 191), (133, 191), (134, 255), (135, 255), (136, 255), (137, 255), (138, 255), (139, 255)] col x=10, y 124..140: [(124, 255), (125, 255), (126, 255), (127, 255), (128, 207), (129, 0), (130, 0), (131, 0), (132, 0), (133, 0), (134, 0), (135, 159), (136, 255), (137, 255), (138, 255), (139, 255)] right col x=69, y 0..132 nonzero rows: [11, 12, 13, 14, 15] ... [118, 119, 120, 121, 122] col x=70 nonzero in 0..132: [16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119] [stdout] center col x=35, y 124..140: [(124, 255), (125, 255), (126, 255), (127, 255), (128, 255), (129, 255), (130, 127), (131, 127), (132, 191), (133, 191), (134, 255), (135, 255), (136, 255), (137, 255), (138, 255), (139, 255)] col x=10, y 124..140: [(124, 255), (125, 255), (126, 255), (127, 255), (128, 207), (129, 0), (130, 0), (131, 0), (132, 0), (133, 0), (134, 0), (135, 159), (136, 255), (137, 255), (138, 255), (139, 255)] right col x=69, y 0..132 nonzero rows: [11, 12, 13, 14, 15] ... [118, 119, 120, 121, 122] col x=70 nonzero in 0..132: [16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119]
{
"file_path": "/home/user/task/scenes/car.tscn",
"content": "[gd_scene load_steps=3 format=3 uid=\"uid://codexcarsetupscene\"]\n\n[ext_resource type=\"Texture2D\" uid=\"uid://4j3r3nq5e1ub\" path=\"res://assets/spritesheet_vehicles.png\" id=\"1_car\"]\n\n[sub_resource type=\"CapsuleShape2D\" id=\"CapsuleShape2D_car\"]\nradius = 34.0\nheight = 132.0\n\n[node name=\"Car\" type=\"CharacterBody2D\"]\n\n[node name=\"Sprite2D\" type=\"Sprite2D\" parent=\".\"]\nrotation = 1.5707964\ntexture = ExtResource(\"1_car\")\nregion_enabled = true\nregion_rect = Rect2(0, 0, 72, 132)\n\n[node name=\"CollisionShape2D\" type=\"CollisionShape2D\" parent=\".\"]\nrotation = 1.5707964\nshape = SubResource(\"CapsuleShape2D_car\")\n\n[node name=\"Camera2D\" type=\"Camera2D\" parent=\".\"]\n"
}The file /home/user/task/scenes/car.tscn has been updated successfully. (file state is current in your context , no need to Read it back)
cat /home/user/task/scripts/test.gd 2>/dev/null
{
"description": "Read test validation script"
}extends Node
const CAR_SCENE := "res://scenes/car.tscn"
const TEXTURE_TOKEN := "spritesheet_vehicles.png"
const ROT_TOL := 0.01
func _ready() -> void:
await get_tree().process_frame
run_validation()
func run_validation() -> void:
var car_scene: PackedScene = load(CAR_SCENE)
if car_scene == null:
return _fail("VALIDATION_FAILED: %s is missing" % CAR_SCENE)
var car = car_scene.instantiate()
add_child(car)
if not (car is CharacterBody2D):
return _fail("VALIDATION_FAILED: Car scene root must be CharacterBody2D")
if car.name != "Car":
return _fail("VALIDATION_FAILED: Root node must be named 'Car'")
var sprite := car.get_node_or_null("Sprite2D")
if sprite == null:
return _fail("VALIDATION_FAILED: Add a Sprite2D child named Sprite2D")
if car.get_child_count() < 1 or car.get_child(0) != sprite:
return _fail("VALIDATION_FAILED: Sprite2D must be the first child of Car")
if sprite.texture == null:
return _fail("VALIDATION_FAILED: Sprite2D must have a texture assigned")
if TEXTURE_TOKEN not in sprite.texture.resource_path:
return _fail("VALIDATION_FAILED: Sprite2D must use spritesheet_vehicles.png")
if not sprite.region_enabled:
return _fail("VALIDATION_FAILED: Enable region on the Sprite2D")
var rw: float = sprite.region_rect.size.x
var rh: float = sprite.region_rect.size.y
var ratio: float = rw / rh if rh > 0.0 else 0.0
if ratio < 0.45 or ratio > 0.65:
return _fail("VALIDATION_FAILED: Wrong sprite region selected , the crop must be a portrait-oriented car body")
var rx: float = sprite.region_rect.position.x
if rx < 270.0 or rx > 315.0:
return _fail("VALIDATION_FAILED: Wrong car selected , find the correct forward-facing vertical car body in the spritesheet")
var ry: float = sprite.region_rect.position.y
if ry > 10.0:
return _fail("VALIDATION_FAILED: Wrong sprite row , the correct car body is in the first row of the spritesheet")
if abs(fmod(sprite.rotation, TAU) - PI / 2.0) > ROT_TOL:
return _fail("VALIDATION_FAILED: Sprite2D must be rotated 90 degrees to face forward")
var collider := car.get_node_or_null("CollisionShape2D")
if collider == null:
return _fail("VALIDATION_FAILED: CollisionShape2D child is missing")
if collider.position != Vector2.ZERO:
return _fail("VALIDATION_FAILED: CollisionShape2D must have no position offset (must stay at Vector2.ZERO)")
if not (collider.shape is CapsuleShape2D):
return _fail("VALIDATION_FAILED: Collider must use CapsuleShape2D")
var capsule: CapsuleShape2D = collider.shape
var long_side := maxf(sprite.region_rect.size.x, sprite.region_rect.size.y)
var short_side := minf(sprite.region_rect.size.x, sprite.region_rect.size.y)
if capsule.height < long_side * 0.97 or capsule.height > long_side * 1.03:
return _fail("VALIDATION_FAILED: Capsule height does not closely fit the car sprite length")
if capsule.radius < (short_side / 2.0) * 0.97 or capsule.radius > (short_side / 2.0) * 1.03:
return _fail("VALIDATION_FAILED: Capsule radius does not closely fit half the car sprite width")
if abs(fmod(collider.rotation, TAU) - PI / 2.0) > ROT_TOL:
return _fail("VALIDATION_FAILED: Collider must be rotated 90 degrees to align with the car body")
var camera := car.get_node_or_null("Camera2D")
if camera == null:
return _fail("VALIDATION_FAILED: Camera2D child is required")
if camera.zoom.x < 0.4 or camera.zoom.x > 0.6 or camera.zoom.y < 0.4 or camera.zoom.y > 0.6:
return _fail("VALIDATION_FAILED: Camera zoom is not set to the required value for this top-down view")
if not camera.is_current():
return _fail("VALIDATION_FAILED: Camera2D must be set as the current camera for this scene")
if camera.position != Vector2.ZERO:
return _fail("VALIDATION_FAILED: Camera2D must have no position offset (…[truncated]python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
# In first row band y=2..125, find columns that are fully transparent (gaps between cars)
band=range(2,125)
empty=[all(A(x,y)<=10 for y in band) for x in range(W)]
# segments of non-empty (sprite columns)
segs=[];st=None
for i,e in enumerate(empty):
if not e and st is None: st=i
if e and st is not None: segs.append((st,i-1));st=None
if st is not None: segs.append((st,len(empty)-1))
for s in segs:
if s[0]<=360:
print("col seg x",s[0],"-",s[1],"w",s[1]-s[0]+1)
EOF
{
"description": "Find first-row column segments"
}col seg x 0 - 674 w 675 [stdout] col seg x 0 - 674 w 675
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
band=range(2,128)
dens=[sum(1 for y in band if A(x,y)>10) for x in range(W)]
# print density 200..340
for x in range(200,345):
bar='#'*(dens[x]//4)
print(x,dens[x],bar)
EOF
{
"description": "Column density around x=270-320"
}200 124 ############################### 201 124 ############################### 202 124 ############################### 203 124 ############################### 204 122 ############################## 205 121 ############################## 206 121 ############################## 207 121 ############################## 208 119 ############################# 209 118 ############################# 210 116 ############################# 211 113 ############################ 212 111 ########################### 213 108 ########################### 214 102 ######################### 215 56 ############## 216 32 ######## 217 32 ######## 218 37 ######### 219 37 ######### 220 102 ######################### 221 108 ########################### 222 113 ############################ 223 116 ############################# 224 119 ############################# 225 121 ############################## 226 122 ############################## 227 124 ############################### 228 125 ############################### 229 126 ############################### 230 126 ############################### 231 126 ############################### 232 126 ############################### 233 126 ############################### 234 126 ############################### 235 126 ############################### 236 126 ############################### 237 126 ############################### 238 126 ############################### 239 126 ############################### 240 126 ############################### 241 126 ############################### 242 126 ############################### 243 126 ############################### 244 126 ############################### 245 126 ############################### 246 126 ############################### 247 126 ############################### 248 126 ############################### 249 126 ############################### 250 126 ############################### 251 126 ############################### 252 126 ############################### 253 126 ############################### 254 126 ############################### 255 126 ############################### 256 126 ############################### 257 126 ############################### 258 126 ############################### 259 126 ############################### 260 126 ############################### 261 126 ############################### 262 126 ############################### 263 126 ############################### 264 126 ############################### 265 126 ############################### 266 126 ############################### 267 126 ############################### 268 126 ############################### 269 126 ############################### 270 126 ############################### 271 126 ############################### 272 126 ############################### 273 126 ############################### 274 126 ############################### 275 126 ############################### 276 126 ############################### 277 126 ############################### 278 125 ############################### 279 125 ############################### 280 124 ############################### 281 122 ############################## 282 120 ############################## 283 118 ############################# 284 116 ############################# 285 112 ############################ 286 107 ########################## 287 100 ######################### 288 24 ###### 289 24 ###### 290 37 ######### 291 37 ######### 292 102 ######################### 293 108 ########################### 294 113 ############################ 295 116 ############################# 296 119 ############################# 297 121 ############################## 298 122 ############################## 299 124 ############################### 300 125 ############################### 301 126 ############################### 302 126 ############################### 303 126 ############################### 304 126 ############################### 305 126 ############################### 306 126 ############################### 307 126 #######…[truncated]
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
band=range(2,128)
dens=[sum(1 for y in band if A(x,y)>10) for x in range(W)]
# find gap columns (low density) as candidate boundaries
for x in range(285,380):
print(x,dens[x])
EOF
{
"description": "Find right edge of car at x=292"
}285 112 286 107 287 100 288 24 289 24 290 37 291 37 292 102 293 108 294 113 295 116 296 119 297 121 298 122 299 124 300 125 301 126 302 126 303 126 304 126 305 126 306 126 307 126 308 126 309 126 310 126 311 126 312 126 313 126 314 126 315 126 316 126 317 126 318 126 319 126 320 126 321 126 322 126 323 126 324 126 325 126 326 126 327 126 328 126 329 126 330 126 331 126 332 126 333 126 334 126 335 126 336 126 337 126 338 126 339 126 340 126 341 126 342 126 343 126 344 126 345 126 346 126 347 126 348 126 349 126 350 125 351 125 352 124 353 122 354 120 355 118 356 116 357 112 358 107 359 100 360 24 361 24 362 114 363 114 364 118 365 120 366 121 367 123 368 124 369 125 370 125 371 126 372 126 373 126 374 126 375 126 376 126 377 126 378 126 379 125 [stdout] 285 112 286 107 287 100 288 24 289 24 290 37 291 37 292 102 293 108 294 113 295 116 296 119 297 121 298 122 299 124 300 125 301 126 302 126 303 126 304 126 305 126 306 126 307 126 308 126 309 126 310 126 311 126 312 126 313 126 314 126 315 126 316 126 317 126 318 126 319 126 320 126 321 126 322 126 323 126 324 126 325 126 326 126 327 126 328 126 329 126 330 126 331 126 332 126 333 126 334 126 335 126 336 126 337 126 338 126 339 126 340 126 341 126 342 126 343 126 344 126 345 126 346 126 347 126 348 126 349 126 350 125 351 125 352 124 353 122 354 120 355 118 356 116 357 112 358 107 359 100 360 24 361 24 362 114 363 114 364 118 365 120 366 121 367 123 368 124 369 125 370 125 371 126 372 126 373 126 374 126 375 126 376 126 377 126 378 126 379 125
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
# tight bbox in window, but use clean gap-based left/right
# determine left edge: scan columns 285..295 find first col with substantial alpha at top region
# Use precise: for the car, find min x with alpha>10 within window x[286,361], excluding belonging to neighbors.
# Vertical: row density for cols 292..358
def rowd(y): return sum(1 for x in range(292,359) if A(x,y)>10)
print("rows 0..140 density (cols292-358):")
for y in range(0,140):
print(y,rowd(y))
EOF
{
"description": "Row density for the target car"
}rows 0..140 density (cols292-358): 0 28 1 46 2 54 3 57 4 60 5 62 6 64 7 64 8 66 9 66 10 67 11 67 12 67 13 67 14 67 15 67 16 67 17 67 18 67 19 67 20 67 21 67 22 67 23 67 24 67 25 67 26 67 27 67 28 67 29 67 30 67 31 67 32 67 33 67 34 67 35 67 36 67 37 67 38 67 39 67 40 67 41 67 42 67 43 67 44 67 45 67 46 67 47 67 48 67 49 67 50 67 51 67 52 67 53 67 54 67 55 67 56 67 57 67 58 67 59 67 60 67 61 67 62 67 63 67 64 67 65 67 66 67 67 67 68 67 69 67 70 67 71 67 72 67 73 67 74 67 75 67 76 67 77 67 78 67 79 67 80 67 81 67 82 67 83 67 84 67 85 67 86 67 87 67 88 67 89 67 90 67 91 67 92 67 93 67 94 67 95 67 96 67 97 67 98 67 99 67 100 67 101 67 102 67 103 67 104 67 105 67 106 67 107 67 108 67 109 67 110 67 111 67 112 66 113 66 114 66 115 65 116 64 117 64 118 63 119 62 120 62 121 60 122 59 123 58 124 56 125 54 126 52 127 49 128 46 129 42 130 28 131 28 132 28 133 28 134 46 135 54 136 57 137 60 138 62 139 64 [stdout] rows 0..140 density (cols292-358): 0 28 1 46 2 54 3 57 4 60 5 62 6 64 7 64 8 66 9 66 10 67 11 67 12 67 13 67 14 67 15 67 16 67 17 67 18 67 19 67 20 67 21 67 22 67 23 67 24 67 25 67 26 67 27 67 28 67 29 67 30 67 31 67 32 67 33 67 34 67 35 67 36 67 37 67 38 67 39 67 40 67 41 67 42 67 43 67 44 67 45 67 46 67 47 67 48 67 49 67 50 67 51 67 52 67 53 67 54 67 55 67 56 67 57 67 58 67 59 67 60 67 61 67 62 67 63 67 64 67 65 67 66 67 67 67 68 67 69 67 70 67 71 67 72 67 73 67 74 67 75 67 76 67 77 67 78 67 79 67 80 67 81 67 82 67 83 67 84 67 85 67 86 67 87 67 88 67 89 67 90 67 91 67 92 67 93 67 94 67 95 67 96 67 97 67 98 67 99 67 100 67 101 67 102 67 103 67 104 67 105 67 106 67 107 67 108 67 109 67 110 67 111 67 112 66 113 66 114 66 115 65 116 64 117 64 118 63 119 62 120 62 121 60 122 59 123 58 124 56 125 54 126 52 127 49 128 46 129 42 130 28 131 28 132 28 133 28 134 46 135 54 136 57 137 60 138 62 139 64
python3 - <<'EOF'
W,H=1024,512
a=open('/tmp/alpha.bin','rb').read()
def A(x,y): return a[y*W+x]
# Determine which side x=290,291 belong to by checking continuity with car (x>=292)
# Examine a few rows around the wheel bulge (y~16-32 and y~101-119 were bulges for car1)
for y in [5,20,65,110,125]:
row=[A(x,y) for x in range(286,296)]
print("y",y,"x286-295:",row)
EOF
{
"description": "Check left boundary pixels ownership"
}y 5 x286-295: [0, 0, 0, 0, 0, 0, 0, 0, 0, 47] y 20 x286-295: [255, 255, 191, 191, 255, 255, 255, 255, 255, 255] y 65 x286-295: [255, 127, 0, 0, 0, 0, 191, 255, 255, 255] y 110 x286-295: [255, 47, 0, 0, 0, 0, 63, 255, 255, 255] y 125 x286-295: [0, 0, 0, 0, 0, 0, 0, 0, 0, 0] [stdout] y 5 x286-295: [0, 0, 0, 0, 0, 0, 0, 0, 0, 47] y 20 x286-295: [255, 255, 191, 191, 255, 255, 255, 255, 255, 255] y 65 x286-295: [255, 127, 0, 0, 0, 0, 191, 255, 255, 255] y 110 x286-295: [255, 47, 0, 0, 0, 0, 63, 255, 255, 255] y 125 x286-295: [0, 0, 0, 0, 0, 0, 0, 0, 0, 0]
{
"file_path": "/home/user/task/scenes/car.tscn",
"content": "[gd_scene load_steps=3 format=3 uid=\"uid://codexcarsetupscene\"]\n\n[ext_resource type=\"Texture2D\" uid=\"uid://4j3r3nq5e1ub\" path=\"res://assets/spritesheet_vehicles.png\" id=\"1_car\"]\n\n[sub_resource type=\"CapsuleShape2D\" id=\"CapsuleShape2D_car\"]\nradius = 34.0\nheight = 132.0\n\n[node name=\"Car\" type=\"CharacterBody2D\"]\n\n[node name=\"Sprite2D\" type=\"Sprite2D\" parent=\".\"]\nrotation = 1.5707964\ntexture = ExtResource(\"1_car\")\nregion_enabled = true\nregion_rect = Rect2(292, 0, 68, 132)\n\n[node name=\"CollisionShape2D\" type=\"CollisionShape2D\" parent=\".\"]\nrotation = 1.5707964\nshape = SubResource(\"CapsuleShape2D_car\")\n\n[node name=\"Camera2D\" type=\"Camera2D\" parent=\".\"]\nzoom = Vector2(0.5, 0.5)\n"
}The file /home/user/task/scenes/car.tscn has been updated successfully. (file state is current in your context , no need to Read it back)
(command -v godot >/dev/null && GODOT=godot || (command -v godot4 >/dev/null && GODOT=godot4)); if [ -n "$GODOT" ]; then echo "Using $GODOT"; $GODOT --headless --path . res://scenes/test.tscn 2>&1 | grep -E "VALIDATION|ERROR|SCRIPT" | head; else echo "Godot not installed"; fi
{
"description": "Run Godot validation test"
}Godot not installed [stdout] Godot not installed
No file changes, the agent left the workspace untouched.
Godot Engine v4.4.stable.official.4c311cbee - https://godotengine.org
WARNING: Started the engine as `root`/superuser. This is a security risk, and subsystems like audio may not work correctly.
Set the environment variable `GODOT_SILENCE_ROOT_WARNING` to 1 to silence this warning.
at: setup2 (main/main.cpp:3181)
VALIDATION_FAILED: Camera2D must be set as the current camera for this sceneReproduce this trial: git checkout 2f94510 && PYTHONPATH=src python3 scripts/build_site.py , then open trial/trial_04efa6b2a8f64bc2. Re-running the agent live requires EVAL_PLATFORM_ENABLE_OAUTH_SMOKE=1 and is non-deterministic.
Trial trial_04efa6b2a8f64bc2 · verifier authoritative; classifier explanatory.