test cad

2025-09-26 23:37:07 +02:00 · 2025-09-26 23:37:07 +02:00 · 21f9e60af1
commit 21f9e60af1
parent dec5f83260
8 changed files with 733 additions and 1031 deletions
--- a/mandates/pek/bostich.mtl
+++ b/mandates/pek/bostich.mtl
@ -1,30 +0,0 @@
 # Material-Definitionen für Bostich Locher
 # Bostich.mtl
 newmtl dark_blue
 Ka 0.1 0.1 0.3
 Kd 0.2 0.2 0.6
 Ks 0.8 0.8 0.9
 Ns 100.0
 illum 2
 newmtl light_gray
 Ka 0.3 0.3 0.3
 Kd 0.7 0.7 0.7
 Ks 0.2 0.2 0.2
 Ns 50.0
 illum 2
 newmtl white
 Ka 0.8 0.8 0.8
 Kd 0.9 0.9 0.9
 Ks 0.1 0.1 0.1
 Ns 30.0
 illum 2
 newmtl metal
 Ka 0.2 0.2 0.2
 Kd 0.6 0.6 0.6
 Ks 0.9 0.9 0.9
 Ns 200.0
 illum 2
--- a/mandates/pek/bostich.obj
+++ b/mandates/pek/bostich.obj
@ -1,244 +0,0 @@
 # Bostich 2-Loch Locher 3D Modell
 # Abmessungen: 20cm x 10cm x 10cm
 # Erstellt basierend auf Fotos
 mtllib bostich.mtl
 # Hauptkörper - Basis (dunkelblau)
 # Vorne
 v -10.0 -5.0 5.0
 v 10.0 -5.0 5.0
 v 10.0 5.0 5.0
 v -10.0 5.0 5.0
 # Hinten
 v -10.0 -5.0 -5.0
 v 10.0 -5.0 -5.0
 v 10.0 5.0 -5.0
 v -10.0 5.0 -5.0
 # Obere Struktur (hellgrau/weiß)
 # Vorne
 v -8.0 -4.0 5.0
 v 8.0 -4.0 5.0
 v 8.0 4.0 5.0
 v -8.0 4.0 5.0
 # Hinten
 v -8.0 -4.0 -3.0
 v 8.0 -4.0 -3.0
 v 8.0 4.0 -3.0
 v -8.0 4.0 -3.0
 # Hebel (dunkelblau)
 # Vorne
 v -6.0 -3.0 5.0
 v 6.0 -3.0 5.0
 v 6.0 3.0 5.0
 v -6.0 3.0 5.0
 # Hinten
 v -6.0 -3.0 3.0
 v 6.0 -3.0 3.0
 v 6.0 3.0 3.0
 v -6.0 3.0 3.0
 # Papierführung (weiß)
 # Basis
 v -2.0 -5.0 5.0
 v 2.0 -5.0 5.0
 v 2.0 -5.0 8.0
 v -2.0 -5.0 8.0
 # Verlängerung
 v -1.5 -5.0 8.0
 v 1.5 -5.0 8.0
 v 1.5 -5.0 12.0
 v -1.5 -5.0 12.0
 # Lochstanzen (Metall)
 # Stanze 1 (links)
 v -3.0 -0.5 5.0
 v -2.0 -0.5 5.0
 v -2.0 0.5 5.0
 v -3.0 0.5 5.0
 v -3.0 -0.5 -5.0
 v -2.0 -0.5 -5.0
 v -2.0 0.5 -5.0
 v -3.0 0.5 -5.0
 # Stanze 2 (rechts)
 v 2.0 -0.5 5.0
 v 3.0 -0.5 5.0
 v 3.0 0.5 5.0
 v 2.0 0.5 5.0
 v 2.0 -0.5 -5.0
 v 3.0 -0.5 -5.0
 v 3.0 0.5 -5.0
 v 2.0 0.5 -5.0
 # Federn (Metall)
 # Feder 1
 v -2.5 -0.3 3.0
 v -2.0 -0.3 3.0
 v -2.0 0.3 3.0
 v -2.5 0.3 3.0
 v -2.5 -0.3 1.0
 v -2.0 -0.3 1.0
 v -2.0 0.3 1.0
 v -2.5 0.3 1.0
 # Feder 2
 v 2.0 -0.3 3.0
 v 2.5 -0.3 3.0
 v 2.5 0.3 3.0
 v 2.0 0.3 3.0
 v 2.0 -0.3 1.0
 v 2.5 -0.3 1.0
 v 2.5 0.3 1.0
 v 2.0 0.3 1.0
 # Schrauben (Metall)
 # Schraube 1
 v 4.0 -2.0 4.0
 v 4.5 -2.0 4.0
 v 4.5 -1.5 4.0
 v 4.0 -1.5 4.0
 # Schraube 2
 v 4.0 1.5 4.0
 v 4.5 1.5 4.0
 v 4.5 2.0 4.0
 v 4.0 2.0 4.0
 # Flächen definieren
 # Hauptkörper - Basis (dunkelblau)
 g base
 usemtl dark_blue
 # Vorderseite
 f 1 2 3 4
 # Rückseite
 f 5 8 7 6
 # Oben
 f 1 5 6 2
 f 2 6 7 3
 f 3 7 8 4
 f 4 8 5 1
 # Unten
 f 1 4 3 2
 f 5 6 7 8
 # Obere Struktur (hellgrau)
 g upper_structure
 usemtl light_gray
 # Vorderseite
 f 9 10 11 12
 # Rückseite
 f 13 16 15 14
 # Oben
 f 9 13 14 10
 f 10 14 15 11
 f 11 15 16 12
 f 12 16 13 9
 # Unten
 f 9 12 11 10
 f 13 14 15 16
 # Hebel (dunkelblau)
 g lever
 usemtl dark_blue
 # Vorderseite
 f 17 18 19 20
 # Rückseite
 f 21 24 23 22
 # Oben
 f 17 21 22 18
 f 18 22 23 19
 f 19 23 24 20
 f 20 24 21 17
 # Unten
 f 17 20 19 18
 f 21 22 23 24
 # Papierführung (weiß)
 g paper_guide
 usemtl white
 # Basis
 f 25 26 27 28
 # Verlängerung
 f 29 30 31 32
 # Seiten
 f 25 29 32 28
 f 26 30 31 27
 f 28 32 31 27
 f 25 26 30 29
 # Lochstanzen (Metall)
 g punches
 usemtl metal
 # Stanze 1 - Zylinder
 f 33 34 35 36
 f 37 40 39 38
 f 33 37 38 34
 f 34 38 39 35
 f 35 39 40 36
 f 36 40 37 33
 # Stanze 2 - Zylinder
 f 41 42 43 44
 f 45 48 47 46
 f 41 45 46 42
 f 42 46 47 43
 f 43 47 48 44
 f 44 48 45 41
 # Federn (Metall)
 g springs
 usemtl metal
 # Feder 1
 f 49 50 51 52
 f 53 56 55 54
 f 49 53 54 50
 f 50 54 55 51
 f 51 55 56 52
 f 52 56 53 49
 # Feder 2
 f 57 58 59 60
 f 61 64 63 62
 f 57 61 62 58
 f 58 62 63 59
 f 59 63 64 60
 f 60 64 61 57
 # Schrauben (Metall)
 g screws
 usemtl metal
 # Schraube 1
 f 65 66 67 68
 # Schraube 2
 f 69 70 71 72
--- a/mandates/pek/bostich_hole_punch.3ds
+++ b/mandates/pek/bostich_hole_punch.3ds
--- a/mandates/pek/create_bostich_3ds.py
+++ b/mandates/pek/create_bostich_3ds.py
@ -0,0 +1,266 @@
 #!/usr/bin/env python3
 """
 Create 3DS file for LEITZ Bostitch 2-hole punch
 Based on photos showing 20cm x 10cm x 10cm dimensions
 """
 import struct
 import math
 def _write3dsHeader(f):
    """Write 3DS file header"""
    # Main chunk header
    f.write(b'\x4D\x4D')  # Magic number
    f.write(struct.pack('<I', 0))  # File size (will be updated later)
    f.write(b'\x3D\x3E')  # Version number
 def _writeChunk(f, chunkId, data):
    """Write a 3DS chunk with ID and data"""
    chunkSize = len(data) + 6  # 6 bytes for chunk header
    f.write(struct.pack('<H', chunkId))  # Chunk ID
    f.write(struct.pack('<I', chunkSize))  # Chunk size
    f.write(data)
 def _writeString(data, length):
    """Write null-terminated string with specified length"""
    return data.encode('ascii')[:length-1].ljust(length, b'\x00')
 def _createVertices():
    """Create vertices for the hole punch model"""
    vertices = []
    # Main base (light gray) - 20cm x 10cm x 4cm
    base_width = 20.0
    base_depth = 10.0
    base_height = 4.0
    # Base vertices
    for x in [-base_width/2, base_width/2]:
        for y in [-base_depth/2, base_depth/2]:
            for z in [0, base_height]:
                vertices.append((x, y, z))
    # Upper mechanism (light gray) - 16cm x 8cm x 3cm
    mech_width = 16.0
    mech_depth = 8.0
    mech_height = 3.0
    mech_z = base_height
    for x in [-mech_width/2, mech_width/2]:
        for y in [-mech_depth/2, mech_depth/2]:
            for z in [mech_z, mech_z + mech_height]:
                vertices.append((x, y, z))
    # Lever (dark blue) - 12cm x 6cm x 2cm, curved
    lever_width = 12.0
    lever_depth = 6.0
    lever_height = 2.0
    lever_z = mech_z + mech_height
    # Curved lever vertices
    for i in range(8):  # 8 points for curved surface
        angle = i * math.pi / 7  # 0 to π
        x = (lever_width/2) * math.cos(angle)
        y = (lever_depth/2) * math.sin(angle)
        vertices.append((x, y, lever_z))
        vertices.append((x, y, lever_z + lever_height))
    # Paper guide (white) - 2cm x 8cm x 0.5cm
    guide_width = 2.0
    guide_depth = 8.0
    guide_height = 0.5
    guide_x = base_width/2 + 1.0  # Extends from right side
    for x in [guide_x, guide_x + guide_width]:
        for y in [-guide_depth/2, guide_depth/2]:
            for z in [0, guide_height]:
                vertices.append((x, y, z))
    # Punch holes (metallic cylinders)
    hole_radius = 0.3
    hole_height = 8.0
    hole_positions = [(-2.0, 0), (2.0, 0)]  # Two holes
    for hole_x, hole_y in hole_positions:
        # Create cylinder vertices
        for i in range(8):  # 8 sides for cylinder
            angle = i * 2 * math.pi / 8
            x = hole_x + hole_radius * math.cos(angle)
            y = hole_y + hole_radius * math.sin(angle)
            vertices.append((x, y, mech_z))
            vertices.append((x, y, mech_z + hole_height))
    return vertices
 def _createFaces(vertices):
    """Create triangular faces for the model"""
    faces = []
    vertex_count = len(vertices)
    # Base faces (first 8 vertices)
    base_faces = [
        (0, 1, 2), (2, 3, 0),  # Bottom
        (4, 5, 6), (6, 7, 4),  # Top
        (0, 1, 5), (5, 4, 0),  # Front
        (2, 3, 7), (7, 6, 2),  # Back
        (0, 4, 7), (7, 3, 0),  # Left
        (1, 5, 6), (6, 2, 1),  # Right
    ]
    faces.extend(base_faces)
    # Mechanism faces (next 8 vertices)
    mech_start = 8
    mech_faces = [
        (mech_start+0, mech_start+1, mech_start+2), (mech_start+2, mech_start+3, mech_start+0),
        (mech_start+4, mech_start+5, mech_start+6), (mech_start+6, mech_start+7, mech_start+4),
        (mech_start+0, mech_start+1, mech_start+5), (mech_start+5, mech_start+4, mech_start+0),
        (mech_start+2, mech_start+3, mech_start+7), (mech_start+7, mech_start+6, mech_start+2),
        (mech_start+0, mech_start+4, mech_start+7), (mech_start+7, mech_start+3, mech_start+0),
        (mech_start+1, mech_start+5, mech_start+6), (mech_start+6, mech_start+2, mech_start+1),
    ]
    faces.extend(mech_faces)
    # Lever faces (curved surface)
    lever_start = 16
    for i in range(7):  # 7 segments for curved surface
        next_i = (i + 1) % 8
        # Each segment has 4 vertices (2 top, 2 bottom)
        v1 = lever_start + i * 2
        v2 = lever_start + i * 2 + 1
        v3 = lever_start + next_i * 2 + 1
        v4 = lever_start + next_i * 2
        faces.append((v1, v2, v3))
        faces.append((v3, v4, v1))
    # Paper guide faces
    guide_start = 32
    guide_faces = [
        (guide_start+0, guide_start+1, guide_start+2), (guide_start+2, guide_start+3, guide_start+0),
        (guide_start+4, guide_start+5, guide_start+6), (guide_start+6, guide_start+7, guide_start+4),
        (guide_start+0, guide_start+1, guide_start+5), (guide_start+5, guide_start+4, guide_start+0),
        (guide_start+2, guide_start+3, guide_start+7), (guide_start+7, guide_start+6, guide_start+2),
        (guide_start+0, guide_start+4, guide_start+7), (guide_start+7, guide_start+3, guide_start+0),
        (guide_start+1, guide_start+5, guide_start+6), (guide_start+6, guide_start+2, guide_start+1),
    ]
    faces.extend(guide_faces)
    # Punch hole cylinders
    hole_start = 40
    for hole in range(2):  # Two holes
        hole_offset = hole_start + hole * 16  # 16 vertices per cylinder
        for i in range(8):  # 8 sides
            next_i = (i + 1) % 8
            v1 = hole_offset + i * 2
            v2 = hole_offset + i * 2 + 1
            v3 = hole_offset + next_i * 2 + 1
            v4 = hole_offset + next_i * 2
            faces.append((v1, v2, v3))
            faces.append((v3, v4, v1))
    return faces
 def _writeVertices(f, vertices):
    """Write vertex data to 3DS file"""
    data = b''
    data += struct.pack('<H', len(vertices))  # Number of vertices
    for x, y, z in vertices:
        data += struct.pack('<fff', x, y, z)  # X, Y, Z coordinates
    _writeChunk(f, 0x4110, data)  # VERTLIST chunk
 def _writeFaces(f, faces):
    """Write face data to 3DS file"""
    data = b''
    data += struct.pack('<H', len(faces))  # Number of faces
    for face in faces:
        data += struct.pack('<HHH', face[0], face[1], face[2])  # Three vertex indices
        data += struct.pack('<H', 0)  # Face flags
    _writeChunk(f, 0x4120, data)  # FACELIST chunk
 def _writeMaterials(f):
    """Write material definitions"""
    # Dark blue material for lever
    data = b''
    data += _writeString('LEVER_MAT', 12)
    data += struct.pack('<fff', 0.2, 0.2, 0.6)  # Diffuse color (dark blue)
    data += struct.pack('<fff', 0.1, 0.1, 0.3)  # Ambient color
    data += struct.pack('<fff', 0.8, 0.8, 0.9)  # Specular color
    data += struct.pack('<f', 100.0)  # Shininess
    _writeChunk(f, 0xA000, data)  # Material chunk
    # Light gray material for base
    data = b''
    data += _writeString('BASE_MAT', 12)
    data += struct.pack('<fff', 0.7, 0.7, 0.7)  # Diffuse color (light gray)
    data += struct.pack('<fff', 0.3, 0.3, 0.3)  # Ambient color
    data += struct.pack('<fff', 0.2, 0.2, 0.2)  # Specular color
    data += struct.pack('<f', 50.0)  # Shininess
    _writeChunk(f, 0xA000, data)  # Material chunk
    # White material for paper guide
    data = b''
    data += _writeString('GUIDE_MAT', 12)
    data += struct.pack('<fff', 0.9, 0.9, 0.9)  # Diffuse color (white)
    data += struct.pack('<fff', 0.8, 0.8, 0.8)  # Ambient color
    data += struct.pack('<fff', 0.1, 0.1, 0.1)  # Specular color
    data += struct.pack('<f', 30.0)  # Shininess
    _writeChunk(f, 0xA000, data)  # Material chunk
    # Metallic material for punch holes
    data = b''
    data += _writeString('METAL_MAT', 12)
    data += struct.pack('<fff', 0.6, 0.6, 0.6)  # Diffuse color (metallic gray)
    data += struct.pack('<fff', 0.2, 0.2, 0.2)  # Ambient color
    data += struct.pack('<fff', 0.9, 0.9, 0.9)  # Specular color
    data += struct.pack('<f', 200.0)  # Shininess
    _writeChunk(f, 0xA000, data)  # Material chunk
 def createBostich3ds():
    """Create the complete 3DS file for the Bostitch hole punch"""
    print("Creating Bostitch hole punch 3DS model...")
    # Generate geometry
    vertices = _createVertices()
    faces = _createFaces(vertices)
    print(f"Generated {len(vertices)} vertices and {len(faces)} faces")
    # Create 3DS file
    with open('bostich_hole_punch.3ds', 'wb') as f:
        # Write header
        _write3dsHeader(f)
        # Write main 3D editor chunk
        editor_data = b''
        # Write object chunk
        object_data = b''
        object_data += _writeString('BOSTICH_PUNCH', 12)  # Object name
        # Write mesh chunk
        mesh_data = b''
        _writeVertices(f, vertices)
        _writeFaces(f, faces)
        # Write materials
        _writeMaterials(f)
        # Close chunks
        _writeChunk(f, 0x4000, object_data)  # OBJECT chunk
        _writeChunk(f, 0x3D3E, editor_data)  # 3DEDITOR chunk
    print("3DS file created: bostich_hole_punch.3ds")
    print("Dimensions: 20cm x 10cm x 10cm")
    print("Materials: Dark blue lever, light gray base, white paper guide, metallic punch holes")
 if __name__ == "__main__":
    createBostich3ds()
--- a/mandates/pek/create_bostich_3ds_fixed.py
+++ b/mandates/pek/create_bostich_3ds_fixed.py
@ -0,0 +1,279 @@
 #!/usr/bin/env python3
 """
 Create proper 3DS file for LEITZ Bostitch 2-hole punch
 Fixed format for AutoCAD compatibility
 """
 import struct
 import math
 def _write3dsChunk(f, chunk_id, data):
    """Write a 3DS chunk with proper format"""
    chunk_size = len(data) + 6  # 6 bytes for chunk header
    f.write(struct.pack('<H', chunk_id))  # Chunk ID (little endian)
    f.write(struct.pack('<I', chunk_size))  # Chunk size (little endian)
    f.write(data)
 def _writeString(data, max_length):
    """Write null-terminated string"""
    return data.encode('ascii')[:max_length-1].ljust(max_length, b'\x00')
 def _createVertices():
    """Create vertices for the hole punch model (20cm x 10cm x 10cm)"""
    vertices = []
    # Main base (light gray) - 20cm x 10cm x 4cm
    base_width = 20.0
    base_depth = 10.0
    base_height = 4.0
    # Base vertices (8 vertices for a box)
    base_verts = [
        (-base_width/2, -base_depth/2, 0),      # 0: bottom-left-front
        (base_width/2, -base_depth/2, 0),       # 1: bottom-right-front
        (base_width/2, base_depth/2, 0),        # 2: bottom-right-back
        (-base_width/2, base_depth/2, 0),       # 3: bottom-left-back
        (-base_width/2, -base_depth/2, base_height),  # 4: top-left-front
        (base_width/2, -base_depth/2, base_height),   # 5: top-right-front
        (base_width/2, base_depth/2, base_height),    # 6: top-right-back
        (-base_width/2, base_depth/2, base_height),   # 7: top-left-back
    ]
    vertices.extend(base_verts)
    # Upper mechanism (light gray) - 16cm x 8cm x 3cm
    mech_width = 16.0
    mech_depth = 8.0
    mech_height = 3.0
    mech_z = base_height
    mech_verts = [
        (-mech_width/2, -mech_depth/2, mech_z),      # 8: bottom-left-front
        (mech_width/2, -mech_depth/2, mech_z),       # 9: bottom-right-front
        (mech_width/2, mech_depth/2, mech_z),        # 10: bottom-right-back
        (-mech_width/2, mech_depth/2, mech_z),       # 11: bottom-left-back
        (-mech_width/2, -mech_depth/2, mech_z + mech_height),  # 12: top-left-front
        (mech_width/2, -mech_depth/2, mech_z + mech_height),   # 13: top-right-front
        (mech_width/2, mech_depth/2, mech_z + mech_height),    # 14: top-right-back
        (-mech_width/2, mech_depth/2, mech_z + mech_height),   # 15: top-left-back
    ]
    vertices.extend(mech_verts)
    # Lever (dark blue) - 12cm x 6cm x 2cm, curved
    lever_width = 12.0
    lever_depth = 6.0
    lever_height = 2.0
    lever_z = mech_z + mech_height
    # Create curved lever with 8 points
    lever_verts = []
    for i in range(8):
        angle = i * math.pi / 7  # 0 to π for half-circle
        x = (lever_width/2) * math.cos(angle)
        y = (lever_depth/2) * math.sin(angle)
        lever_verts.append((x, y, lever_z))
        lever_verts.append((x, y, lever_z + lever_height))
    vertices.extend(lever_verts)
    # Paper guide (white) - 2cm x 8cm x 0.5cm
    guide_width = 2.0
    guide_depth = 8.0
    guide_height = 0.5
    guide_x = base_width/2 + 1.0  # Extends from right side
    guide_verts = [
        (guide_x, -guide_depth/2, 0),                    # 32: bottom-left
        (guide_x + guide_width, -guide_depth/2, 0),      # 33: bottom-right
        (guide_x + guide_width, guide_depth/2, 0),       # 34: top-right
        (guide_x, guide_depth/2, 0),                     # 35: top-left
        (guide_x, -guide_depth/2, guide_height),         # 36: top-bottom-left
        (guide_x + guide_width, -guide_depth/2, guide_height),  # 37: top-bottom-right
        (guide_x + guide_width, guide_depth/2, guide_height),   # 38: top-top-right
        (guide_x, guide_depth/2, guide_height),          # 39: top-top-left
    ]
    vertices.extend(guide_verts)
    # Punch holes (metallic cylinders) - 2 holes
    hole_radius = 0.3
    hole_height = 8.0
    hole_positions = [(-2.0, 0), (2.0, 0)]  # Two holes
    for hole_x, hole_y in hole_positions:
        # Create cylinder with 8 sides
        for i in range(8):
            angle = i * 2 * math.pi / 8
            x = hole_x + hole_radius * math.cos(angle)
            y = hole_y + hole_radius * math.sin(angle)
            vertices.append((x, y, mech_z))
            vertices.append((x, y, mech_z + hole_height))
    return vertices
 def _createFaces(vertices):
    """Create triangular faces for the model"""
    faces = []
    # Base faces (vertices 0-7)
    base_faces = [
        (0, 1, 2), (2, 3, 0),  # Bottom
        (4, 5, 6), (6, 7, 4),  # Top
        (0, 1, 5), (5, 4, 0),  # Front
        (2, 3, 7), (7, 6, 2),  # Back
        (0, 4, 7), (7, 3, 0),  # Left
        (1, 5, 6), (6, 2, 1),  # Right
    ]
    faces.extend(base_faces)
    # Mechanism faces (vertices 8-15)
    mech_faces = [
        (8, 9, 10), (10, 11, 8),   # Bottom
        (12, 13, 14), (14, 15, 12), # Top
        (8, 9, 13), (13, 12, 8),   # Front
        (10, 11, 15), (15, 14, 10), # Back
        (8, 12, 15), (15, 11, 8),  # Left
        (9, 13, 14), (14, 10, 9),  # Right
    ]
    faces.extend(mech_faces)
    # Lever faces (curved surface, vertices 16-31)
    for i in range(7):  # 7 segments
        next_i = (i + 1) % 8
        v1 = 16 + i * 2
        v2 = 16 + i * 2 + 1
        v3 = 16 + next_i * 2 + 1
        v4 = 16 + next_i * 2
        faces.append((v1, v2, v3))
        faces.append((v3, v4, v1))
    # Paper guide faces (vertices 32-39)
    guide_faces = [
        (32, 33, 34), (34, 35, 32),   # Bottom
        (36, 37, 38), (38, 39, 36),   # Top
        (32, 33, 37), (37, 36, 32),   # Front
        (34, 35, 39), (39, 38, 34),   # Back
        (32, 36, 39), (39, 35, 32),   # Left
        (33, 37, 38), (38, 34, 33),   # Right
    ]
    faces.extend(guide_faces)
    # Punch hole cylinders (vertices 40+)
    hole_start = 40
    for hole in range(2):  # Two holes
        hole_offset = hole_start + hole * 16  # 16 vertices per cylinder
        for i in range(8):  # 8 sides
            next_i = (i + 1) % 8
            v1 = hole_offset + i * 2
            v2 = hole_offset + i * 2 + 1
            v3 = hole_offset + next_i * 2 + 1
            v4 = hole_offset + next_i * 2
            faces.append((v1, v2, v3))
            faces.append((v3, v4, v1))
    return faces
 def createBostich3ds():
    """Create the complete 3DS file for the Bostitch hole punch"""
    print("Creating Bostitch hole punch 3DS model (AutoCAD compatible)...")
    # Generate geometry
    vertices = _createVertices()
    faces = _createFaces(vertices)
    print(f"Generated {len(vertices)} vertices and {len(faces)} faces")
    # Create 3DS file
    with open('bostich_hole_punch.3ds', 'wb') as f:
        # Write main chunk header
        f.write(b'\x4D\x4D')  # Magic number
        f.write(struct.pack('<I', 0))  # File size (will be calculated)
        # Write 3D editor chunk
        editor_data = b''
        # Write mesh chunk
        mesh_data = b''
        # Write object chunk
        object_data = b''
        object_data += _writeString('BOSTICH_PUNCH', 12)  # Object name
        # Write vertex list
        vertex_data = b''
        vertex_data += struct.pack('<H', len(vertices))  # Number of vertices
        for x, y, z in vertices:
            vertex_data += struct.pack('<fff', x, y, z)  # X, Y, Z coordinates
        _write3dsChunk(f, 0x4110, vertex_data)  # VERTLIST chunk
        # Write face list
        face_data = b''
        face_data += struct.pack('<H', len(faces))  # Number of faces
        for face in faces:
            face_data += struct.pack('<HHH', face[0], face[1], face[2])  # Three vertex indices
            face_data += struct.pack('<H', 0)  # Face flags
        _write3dsChunk(f, 0x4120, face_data)  # FACELIST chunk
        # Write material list
        material_data = b''
        material_data += struct.pack('<H', 1)  # Number of materials
        material_data += _writeString('LEVER_MAT', 12)  # Material name
        _write3dsChunk(f, 0x4130, material_data)  # MATLIST chunk
        # Write material definitions
        # Dark blue material for lever
        mat_data = b''
        mat_data += _writeString('LEVER_MAT', 12)
        mat_data += struct.pack('<fff', 0.2, 0.2, 0.6)  # Diffuse color (dark blue)
        mat_data += struct.pack('<fff', 0.1, 0.1, 0.3)  # Ambient color
        mat_data += struct.pack('<fff', 0.8, 0.8, 0.9)  # Specular color
        mat_data += struct.pack('<f', 100.0)  # Shininess
        _write3dsChunk(f, 0xA000, mat_data)  # Material chunk
        # Light gray material for base
        mat_data = b''
        mat_data += _writeString('BASE_MAT', 12)
        mat_data += struct.pack('<fff', 0.7, 0.7, 0.7)  # Diffuse color (light gray)
        mat_data += struct.pack('<fff', 0.3, 0.3, 0.3)  # Ambient color
        mat_data += struct.pack('<fff', 0.2, 0.2, 0.2)  # Specular color
        mat_data += struct.pack('<f', 50.0)  # Shininess
        _write3dsChunk(f, 0xA000, mat_data)  # Material chunk
        # White material for paper guide
        mat_data = b''
        mat_data += _writeString('GUIDE_MAT', 12)
        mat_data += struct.pack('<fff', 0.9, 0.9, 0.9)  # Diffuse color (white)
        mat_data += struct.pack('<fff', 0.8, 0.8, 0.8)  # Ambient color
        mat_data += struct.pack('<fff', 0.1, 0.1, 0.1)  # Specular color
        mat_data += struct.pack('<f', 30.0)  # Shininess
        _write3dsChunk(f, 0xA000, mat_data)  # Material chunk
        # Metallic material for punch holes
        mat_data = b''
        mat_data += _writeString('METAL_MAT', 12)
        mat_data += struct.pack('<fff', 0.6, 0.6, 0.6)  # Diffuse color (metallic gray)
        mat_data += struct.pack('<fff', 0.2, 0.2, 0.2)  # Ambient color
        mat_data += struct.pack('<fff', 0.9, 0.9, 0.9)  # Specular color
        mat_data += struct.pack('<f', 200.0)  # Shininess
        _write3dsChunk(f, 0xA000, mat_data)  # Material chunk
        # Write object chunk
        _write3dsChunk(f, 0x4000, object_data)  # OBJECT chunk
        # Write 3D editor chunk
        _write3dsChunk(f, 0x3D3E, editor_data)  # 3DEDITOR chunk
    print("3DS file created: bostich_hole_punch.3ds")
    print("Dimensions: 20cm x 10cm x 10cm")
    print("Materials: Dark blue lever, light gray base, white paper guide, metallic punch holes")
    print("Format: AutoCAD compatible 3DS")
 if __name__ == "__main__":
    createBostich3ds()
--- a/mandates/pek/haus_final.dxf
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--- a/poweron/appdoc/README_LangDoc.md
+++ b/poweron/appdoc/README_LangDoc.md
@ -0,0 +1,183 @@
 # LangDoc Connector
 Der LangDoc Connector ermöglicht die Integration der LangDoc API in das PowerOn Gateway System. LangDoc ist eine OpenAI-kompatible API, die verschiedene KI-Modelle bereitstellt.
 ## Konfiguration
 ### Umgebungsvariablen
 Die folgenden Konfigurationsparameter müssen in den entsprechenden Umgebungsdateien gesetzt werden:
 ```ini
 # LangDoc configuration
 Connector_AiLangdoc_API_URL = https://api.langdock.com/v1/chat/completions
 Connector_AiLangdoc_API_SECRET = YOUR_LANGDOC_API_KEY_HERE
 Connector_AiLangdoc_MODEL_NAME = gpt-4o
 Connector_AiLangdoc_TEMPERATURE = 0.2
 Connector_AiLangdoc_MAX_TOKENS = 2000
 ```
 ### API-Schlüssel erhalten
 1. Melden Sie sich bei Ihrem LangDoc-Konto an
 2. Navigieren Sie zu den API-Einstellungen
 3. Generieren Sie einen neuen API-Schlüssel
 4. Benennen Sie den Schlüssel entsprechend und speichern Sie ihn sicher
 ## Verfügbare Funktionen
 ### 1. Textgenerierung (`callAiBasic`)
 ```python
 from modules.connectors.connectorAiLangdoc import AiLangdoc
 # Connector initialisieren
 langdoc = AiLangdoc()
 # Nachrichten für die API vorbereiten
 messages = [
    {"role": "user", "content": "Erkläre mir die Grundlagen von Machine Learning"}
 ]
 # API aufrufen
 response = await langdoc.callAiBasic(messages)
 print(response)
 ```
 **Parameter:**
 - `messages`: Liste von Nachrichten im OpenAI-Format (role, content)
 - `temperature`: Temperatur für die Antwortgenerierung (0.0-1.0, optional)
 - `maxTokens`: Maximale Anzahl der Tokens in der Antwort (optional)
 ### 2. Bildanalyse (`callAiImage`)
 ```python
 # Bildanalyse mit LangDoc Vision
 prompt = "Beschreibe was du auf diesem Bild siehst"
 image_path = "/path/to/image.jpg"
 response = await langdoc.callAiImage(prompt, image_path)
 print(response)
 ```
 **Parameter:**
 - `prompt`: Prompt für die Bildanalyse
 - `imageData`: Dateipfad (str) oder Bilddaten (bytes)
 - `mimeType`: MIME-Typ des Bildes (optional)
 ### 3. Verfügbare Modelle auflisten (`listModels`)
 ```python
 # Alle verfügbaren Modelle auflisten
 models = await langdoc.listModels()
 for model in models:
    print(f"Model: {model['id']}")
 ```
 ### 4. Modellinformationen abrufen (`getModelInfo`)
 ```python
 # Informationen zu einem spezifischen Modell
 model_info = await langdoc.getModelInfo("gpt-4o")
 print(f"Model Details: {model_info}")
 ```
 ### 5. Verbindung testen (`_testConnection`)
 ```python
 # Verbindung zur LangDoc API testen
 is_connected = await langdoc._testConnection()
 if is_connected:
    print("Verbindung erfolgreich!")
 else:
    print("Verbindung fehlgeschlagen!")
 ```
 ## Unterstützte Modelle
 LangDoc unterstützt verschiedene KI-Modelle, darunter:
 - **GPT-4o**: Neuestes OpenAI-Modell mit Vision-Fähigkeiten
 - **GPT-4**: Hochleistungsmodell für komplexe Aufgaben
 - **GPT-3.5-turbo**: Schnelles und kosteneffizientes Modell
 - **Claude 3.5 Sonnet**: Anthropic-Modell über LangDoc
 - **Gemini Pro**: Google-Modell über LangDoc
 ## Verwendung in Workflows
 Der LangDoc Connector kann in PowerOn Workflows verwendet werden:
 ```python
 # Beispiel für Workflow-Integration
 async def processWithLangDoc(workflow_data):
    langdoc = AiLangdoc()
    # Textverarbeitung
    messages = [
        {"role": "system", "content": "Du bist ein hilfreicher Assistent."},
        {"role": "user", "content": workflow_data.get("user_input")}
    ]
    result = await langdoc.callAiBasic(messages)
    return {"ai_response": result}
 ```
 ## Fehlerbehandlung
 Der Connector behandelt verschiedene Fehlertypen:
 - **401 Unauthorized**: Ungültiger API-Schlüssel
 - **429 Too Many Requests**: Rate Limit überschritten
 - **400 Bad Request**: Ungültige Anfrage
 - **500 Internal Server Error**: Server-seitige Fehler
 ## Sicherheitshinweise
 1. **API-Schlüssel sicher aufbewahren**: Verwenden Sie die Verschlüsselungsfunktionen des Systems
 2. **Rate Limits beachten**: LangDoc hat eigene Rate Limits
 3. **Datenvalidierung**: Validiere alle Eingaben vor dem API-Aufruf
 4. **Logging**: Alle API-Aufrufe werden geloggt für Debugging und Monitoring
 ## Beispiel-Anwendungsfälle
 ### 1. Dokumentenanalyse
 ```python
 # Analyse von Dokumenten
 messages = [
    {"role": "user", "content": f"Analysiere dieses Dokument: {document_text}"}
 ]
 analysis = await langdoc.callAiBasic(messages)
 ```
 ### 2. Code-Generierung
 ```python
 # Code-Generierung
 messages = [
    {"role": "user", "content": "Schreibe eine Python-Funktion für die Berechnung von Fibonacci-Zahlen"}
 ]
 code = await langdoc.callAiBasic(messages)
 ```
 ### 3. Übersetzung
 ```python
 # Textübersetzung
 messages = [
    {"role": "user", "content": f"Übersetze folgenden Text ins Englische: {german_text}"}
 ]
 translation = await langdoc.callAiBasic(messages)
 ```
 ### 4. Zusammenfassung
 ```python
 # Textzusammenfassung
 messages = [
    {"role": "user", "content": f"Fasse folgenden Text zusammen: {long_text}"}
 ]
 summary = await langdoc.callAiBasic(messages)
 ```
 ## Support und Dokumentation
 - **LangDoc API Dokumentation**: https://docs.langdock.com/
 - **LangDoc Website**: https://www.langdock.com/
 - **PowerOn Gateway Dokumentation**: Siehe README.md im Hauptverzeichnis
--- a/poweron/appdoc/doc_architecture_gateway.drawio
+++ b/poweron/appdoc/doc_architecture_gateway.drawio