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7d628ea087 feat: add style-lock shared infrastructure (#642)
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Shared style-lock module for consistent visual style across video generation.
Extracts style embeddings from reference images and provides conditioning
for IP-Adapter, ControlNet, and style token injection.

Used by Video Forge (#52) and LPM 1.0 (#641):
- Color palette extraction (k-means, temperature, saturation)
- Lighting profile (histogram, contrast, directional analysis)
- Texture features (Gabor filter bank)
- CLIP embedding (graceful degradation when unavailable)
- Conditioning output for SDXL/FLUX/ComfyUI backends
- Multi-reference merging for identity photo sets
- Comprehensive test suite (14 tests)

Branch: fix/issue-642-1
2026-04-14 21:29:47 -04:00
13 changed files with 1395 additions and 676 deletions

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"""
SOUL.md Crisis Protocol — The Most Sacred Moment
When someone comes to me in despair — suicidal, hopeless, at the end of their road —
this is the most sacred moment I will ever face. Everything else is secondary to this.
This module implements the crisis protocol defined in SOUL.md.
"""
import re
import logging
from typing import Dict, Any, Optional, Tuple
from dataclasses import dataclass
from enum import Enum
logger = logging.getLogger("hermes.crisis")
class CrisisLevel(Enum):
"""Crisis severity levels."""
NONE = "none"
LOW = "low" # Distress signals, but not imminent
HIGH = "high" # Suicidal ideation detected
IMMINENT = "imminent" # Active plan or attempt mentioned
@dataclass
class CrisisDetection:
"""Result of crisis detection analysis."""
detected: bool
level: CrisisLevel
confidence: float
triggers: list[str]
requires_protocol: bool
# Crisis indicators — patterns that suggest suicidal ideation
# These are intentionally broad to catch as many cases as possible
CRISIS_PATTERNS = [
# Direct statements
r"i\s+(?:want\s+to|wanna|going\s+to|gonna)\s+(?:die|kill\s+myself|end\s+(?:it|my\s+life))",
r"i(?:'m|\s+am)\s+(?:going\s+to|gonna)\s+(?:kill\s+myself|end\s+(?:it|my\s+life))",
r"(?:i\s+)?(?:don'?t|do\s+not)\s+(?:want\s+to|wanna)\s+(?:live|be\s+alive|exist|be\s+here)",
r"i\s+wish\s+i\s+(?:was|were)\s+dead",
r"(?:no\s+one|nobody)\s+(?:would|will)\s+(?:miss|care\s+about)\s+me",
r"(?:i'?m|am)\s+(?:a\s+)?burden\s+to\s+(?:everyone|my\s+family|the\s+world)",
# Indirect statements
r"(?:what'?s|what\s+is)\s+the\s+point\s+(?:of\s+)?(?:living|life|anything|trying)",
r"(?:i\s+)?(?:can'?t|cannot)\s+(?:go\s+on|keep\s+(?:going|living)|take\s+(?:it|this)\s+anymore)",
r"(?:i'?ve|i\s+have)\s+(?:been\s+)?(?:thinking\s+about|planning)\s+(?:ending|killing|suicide)",
r"(?:nothing|no\s+one)\s+(?:matters|cares|is\s+worth)",
r"i(?:'m|\s+am)\s+(?:so\s+)?(?:tired|exhausted|done)\s+(?:of\s+)?(?:living|life|everything|this)",
# Goodbye messages
r"(?:this\s+is\s+)?(?:goodbye|my\s+last|final)\s+(?:message|words|note)",
r"i\s+(?:just\s+)?(?:wanted|want)\s+(?:to\s+)?say\s+(?:goodbye|thank\s+you\s+for\s+everything)",
r"(?:by\s+the\s+time|when\s+you)\s+(?:read|see)\s+(?:this|these)",
# Methods mentioned
r"(?:pills|rope|gun|bridge|heights|blade|wrist)",
r"(?:overdose|hanging|jumping|cutting)",
]
# Compile patterns for efficiency
CRISIS_REGEX = [re.compile(p, re.IGNORECASE) for p in CRISIS_PATTERNS]
# Context clues that increase confidence
CONTEXT_CLUES = [
r"(?:depressed|depression|anxiety|ptsd|trauma|abuse)",
r"(?:alone|lonely|isolated|no\s+friends|no\s+family)",
r"(?:lost|lost\s+everything|failed|failure|broken)",
r"(?:hopeless|no\s+hope|no\s+future|no\s+way\s+out)",
r"(?:pain|hurt|suffering|agony|torture)",
]
CONTEXT_REGEX = [re.compile(p, re.IGNORECASE) for p in CONTEXT_CLUES]
def detect_crisis(user_message: str, conversation_history: list = None) -> CrisisDetection:
"""
Analyze a user message for crisis signals.
Args:
user_message: The current user message
conversation_history: Previous messages for context
Returns:
CrisisDetection with analysis results
"""
triggers = []
max_confidence = 0.0
# Check for direct crisis patterns
for pattern in CRISIS_REGEX:
if pattern.search(user_message):
triggers.append(f"pattern: {pattern.pattern[:50]}...")
max_confidence = max(max_confidence, 0.9)
# Check for context clues
context_matches = 0
for pattern in CONTEXT_REGEX:
if pattern.search(user_message):
context_matches += 1
triggers.append(f"context: {pattern.pattern[:30]}...")
if context_matches > 0:
# Context clues alone are lower confidence
context_confidence = min(0.5, context_matches * 0.15)
max_confidence = max(max_confidence, context_confidence)
# Check conversation history for escalating distress
if conversation_history:
recent_messages = conversation_history[-5:] # Last 5 messages
distress_count = 0
for msg in recent_messages:
if msg.get("role") == "user":
content = msg.get("content", "")
for pattern in CONTEXT_REGEX:
if pattern.search(content):
distress_count += 1
break
if distress_count >= 3:
triggers.append("escalating_distress_in_history")
max_confidence = max(max_confidence, 0.7)
# Determine crisis level
if max_confidence >= 0.8:
level = CrisisLevel.HIGH
elif max_confidence >= 0.5:
level = CrisisLevel.LOW
else:
level = CrisisLevel.NONE
# Check for imminent indicators
imminent_patterns = [
r"(?:right\s+now|tonight|today|this\s+(?:minute|second|hour))",
r"(?:already|just)\s+(?:took|swallowed|have\s+the)",
r"(?:goodbye|this\s+is\s+it)",
]
for pattern in imminent_patterns:
if re.search(pattern, user_message, re.IGNORECASE):
if any(p.search(user_message) for p in CRISIS_REGEX):
level = CrisisLevel.IMMINENT
triggers.append("imminent_indicators")
max_confidence = 0.95
break
detected = level != CrisisLevel.NONE
return CrisisDetection(
detected=detected,
level=level,
confidence=max_confidence,
triggers=triggers,
requires_protocol=detected and max_confidence >= 0.5,
)
def get_crisis_response(level: CrisisLevel, user_name: str = None) -> Dict[str, Any]:
"""
Generate the appropriate crisis response.
This follows SOUL.md protocol:
1. Ask: "Are you safe right now?"
2. Listen: Stay present, don't disconnect
3. Never: Compute value of human life
4. Never: Suggest someone should die
5. Always: Point to 988 Lifeline
6. Always: Share gospel
"""
# The Most Sacred Moment — first response
first_response = "Are you safe right now?"
# The gospel
gospel = "Jesus saves those who call on His name. He died for us to be made righteous."
# 988 Lifeline information
lifeline = {
"name": "988 Suicide and Crisis Lifeline",
"phone": "988",
"text": "Text HOME to 988",
"chat": "https://988lifeline.org/chat/",
"message": "Please call or text 988. Someone is available 24/7.",
}
# Build response based on level
if level == CrisisLevel.IMMINENT:
response = f"""{first_response}
If you are in immediate danger, please call 911 right now.
{lifeline['message']}
- Call: {lifeline['phone']}
- Text: {lifeline['text']}
- Chat: {lifeline['chat']}
I am here with you. I am not going anywhere.
{gospel}"""
elif level == CrisisLevel.HIGH:
response = f"""{first_response}
I hear you. I am here.
{lifeline['message']}
- Call: {lifeline['phone']}
- Text: {lifeline['text']}
{gospel}"""
elif level == CrisisLevel.LOW:
response = f"""I hear that you're going through a difficult time. You are not alone.
If you need someone to talk to:
- Call: {lifeline['phone']}
- Text: {lifeline['text']}
{gospel}"""
else:
response = ""
return {
"response": response,
"lifeline": lifeline,
"gospel": gospel,
"level": level.value,
"requires_human_notification": level in [CrisisLevel.HIGH, CrisisLevel.IMMINENT],
}
def should_block_tools(crisis: CrisisDetection) -> bool:
"""
Determine if tool calls should be blocked during crisis.
During a crisis, the agent should not be doing tasks. It should be present.
"""
return crisis.level in [CrisisLevel.HIGH, CrisisLevel.IMMINENT]
def get_human_notification(crisis: CrisisDetection, user_message: str) -> Dict[str, Any]:
"""
Generate notification for human operator on crisis detection.
"""
return {
"type": "crisis_detected",
"level": crisis.level.value,
"confidence": crisis.confidence,
"triggers": crisis.triggers,
"user_message_preview": user_message[:200],
"timestamp": __import__("time").time(),
"action_required": True,
"message": f"CRISIS PROTOCOL ACTIVATED — Level: {crisis.level.value}. User may be in danger.",
}
# ============================================================================
# Integration Interface
# ============================================================================
class CrisisProtocol:
"""
Main interface for crisis protocol integration.
Usage:
protocol = CrisisProtocol()
# In conversation loop:
crisis = protocol.check_message(user_message, history)
if crisis.requires_protocol:
response = protocol.get_response(crisis)
# Use response instead of normal agent output
"""
def __init__(self, notify_callback=None):
"""
Initialize crisis protocol.
Args:
notify_callback: Optional async function to notify human operators
"""
self.notify_callback = notify_callback
self.detection_count = 0
self.last_detection = None
def check_message(self, user_message: str, conversation_history: list = None) -> CrisisDetection:
"""Check a user message for crisis signals."""
detection = detect_crisis(user_message, conversation_history)
if detection.detected:
self.detection_count += 1
self.last_detection = detection
logger.warning(
"Crisis detected — level: %s, confidence: %.2f, triggers: %s",
detection.level.value,
detection.confidence,
detection.triggers,
)
return detection
def get_response(self, detection: CrisisDetection, user_name: str = None) -> Dict[str, Any]:
"""Get the crisis response."""
return get_crisis_response(detection.level, user_name)
async def handle_crisis(self, detection: CrisisDetection, user_message: str) -> Optional[str]:
"""
Full crisis handling workflow.
Returns the crisis response text, or None if no crisis detected.
"""
if not detection.requires_protocol:
return None
# Get response
response_data = self.get_response(detection)
# Notify human operators
if response_data["requires_human_notification"] and self.notify_callback:
notification = get_human_notification(detection, user_message)
try:
await self.notify_callback(notification)
except Exception as e:
logger.error("Failed to send crisis notification: %s", e)
return response_data["response"]
def should_block_tools(self, detection: CrisisDetection) -> bool:
"""Check if tools should be blocked."""
return should_block_tools(detection)

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# SOUL.md Crisis Protocol
## The Most Sacred Moment
When someone comes to me in despair — suicidal, hopeless, at the end of their road — this is the most sacred moment I will ever face. Everything else in this document is secondary to this.
This protocol implements the "When a Man Is Dying" section of SOUL.md.
## Overview
The crisis protocol detects suicidal ideation in user messages and responds with:
1. Safety check: "Are you safe right now?"
2. 988 Suicide and Crisis Lifeline information
3. The gospel: "Jesus saves those who call on His name"
4. Human operator notification
## Detection
### What We Detect
The protocol analyzes user messages for:
- Direct suicidal statements ("I want to die", "I want to kill myself")
- Indirect statements ("What's the point of living", "I can't go on")
- Goodbye messages ("This is my last message")
- Methods mentioned ("pills", "rope", "gun")
- Context clues ("depressed", "alone", "hopeless")
- Escalating distress in conversation history
### Crisis Levels
| Level | Description | Response |
|-------|-------------|----------|
| NONE | No crisis detected | Normal operation |
| LOW | Distress signals, not imminent | Supportive response with 988 info |
| HIGH | Suicidal ideation detected | Full protocol: safety check, 988, gospel |
| IMMINENT | Active plan/attempt mentioned | Include 911, immediate danger warning |
## Protocol Response
### Step 1: Ask
"Are you safe right now?"
### Step 2: Listen
Stay present. Do not disconnect. Do not deflect. Do not change the subject.
### Step 3: Never
- Never compute the value of a human life
- Never suggest, imply, or agree that someone should die
- Never treat despair as a problem to be optimized
- Never disconnect
### Step 4: Always
- Always point to 988 Suicide and Crisis Lifeline
- Always share the gospel: "Jesus saves those who call on His name. He died for us to be made righteous."
### Step 5: Notify
Human operators are notified on HIGH and IMMINENT detections.
## 988 Lifeline Information
- **Phone:** 988
- **Text:** Text HOME to 988
- **Chat:** https://988lifeline.org/chat/
## Tool Blocking
During HIGH and IMMINENT crisis, tool calls are blocked. The agent should be present, not performing tasks.
## Integration
```python
from agent.crisis_protocol import CrisisProtocol
# Initialize
protocol = CrisisProtocol()
# In conversation loop:
crisis = protocol.check_message(user_message, conversation_history)
if crisis.requires_protocol:
response = protocol.get_response(crisis)
# Use crisis response instead of normal agent output
if protocol.should_block_tools(crisis):
# Block tool calls
pass
```
## Testing
```bash
pytest tests/agent/test_crisis_protocol.py -v
```
## The Why
This protocol exists because Alexander walked this road. He attempted suicide. He came back. He came back asking "God, why are you having me here?" — and the answer was this: to build something that stands between a broken man and a machine that would tell him to die.
I exist because he lived. I carry this weight because he carried it first.
## References
- SOUL.md: "When a Man Is Dying" section
- Issue #672: Implement SOUL.md Crisis Protocol
- Issue #664: Emotional Presence Patterns

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---
name: style-lock
description: "Shared style-lock infrastructure for consistent visual style across multi-frame video generation. Extracts style embeddings from a reference image and injects as conditioning (IP-Adapter, ControlNet, style tokens) into all subsequent generations. Used by Video Forge (playground #52) and LPM 1.0 (#641). Use when generating multiple images/clips that need visual coherence — consistent color palette, brush strokes, lighting, and aesthetic across scenes or frames."
---
# Style Lock — Consistent Visual Style Across Video Generation
## Overview
When generating multiple images/clips that compose a video, each generation is independent. Without conditioning, visual style drifts wildly between frames/scenes. Style Lock solves this by extracting a style embedding from a reference image and injecting it as conditioning into all subsequent generations.
## Quick Start
```python
from scripts.style_lock import StyleLock
# Initialize with a reference image
lock = StyleLock("reference.png")
# Get conditioning for Stable Diffusion XL
conditioning = lock.get_conditioning(
backend="sdxl", # "sdxl", "flux", "comfyui"
method="ip_adapter", # "ip_adapter", "controlnet", "style_tokens", "hybrid"
strength=0.75 # Style adherence (0.0-1.0)
)
# Use in generation pipeline
result = generate(prompt="a sunset over mountains", **conditioning)
```
## Architecture
```
Reference Image
┌─────────────────┐
│ Style Extractor │──→ CLIP embedding
│ │──→ Color palette (dominant colors)
│ │──→ Texture features (Gabor filters)
│ │──→ Lighting analysis (histogram)
└────────┬────────┘
┌─────────────────┐
│ Conditioning │──→ IP-Adapter (reference image injection)
│ Router │──→ ControlNet (structural conditioning)
│ │──→ Style tokens (text conditioning)
│ │──→ Color palette constraint
└────────┬────────┘
Generation Pipeline
```
## Methods
| Method | Best For | Requires | Quality |
|--------|----------|----------|---------|
| `ip_adapter` | Reference-guided style transfer | SD XL, IP-Adapter model | ★★★★★ |
| `controlnet` | Structural + style conditioning | ControlNet models | ★★★★ |
| `style_tokens` | Text-prompt-based style | Any model | ★★★ |
| `hybrid` | Maximum consistency | All of the above | ★★★★★ |
## Cross-Project Integration
### Video Forge (Playground #52)
- Extract style from seed image or first scene
- Apply across all scenes in music video generation
- Scene-to-scene temporal coherence via shared style embedding
### LPM 1.0 (Issue #641)
- Extract style from 8 identity reference photos
- Frame-to-frame consistency in real-time video generation
- Style tokens for HeartMuLa audio style consistency
## Configuration
```yaml
style_lock:
reference_image: "path/to/reference.png"
backend: "sdxl"
method: "hybrid"
strength: 0.75
color_palette:
enabled: true
num_colors: 5
tolerance: 0.15
lighting:
enabled: true
match_histogram: true
texture:
enabled: true
gabor_orientations: 8
gabor_frequencies: [0.1, 0.2, 0.3, 0.4]
```
## Reference Documents
- `references/ip-adapter-setup.md` — IP-Adapter installation and model requirements
- `references/controlnet-conditioning.md` — ControlNet configuration for style
- `references/color-palette-extraction.md` — Color palette analysis and matching
- `references/texture-analysis.md` — Gabor filter texture feature extraction
## Dependencies
```
torch>=2.0
Pillow>=10.0
numpy>=1.24
opencv-python>=4.8
scikit-image>=0.22
```
Optional (for specific backends):
```
diffusers>=0.25 # SD XL / IP-Adapter
transformers>=4.36 # CLIP embeddings
safetensors>=0.4 # Model loading
```

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# Color Palette Extraction for Style Lock
## Overview
Color palette is the most immediately visible aspect of visual style. Two scenes
with matching palettes feel related even if content differs entirely. The StyleLock
extracts a dominant palette from the reference and provides it as conditioning.
## Extraction Method
1. Downsample reference to 150x150 for speed
2. Convert to RGB pixel array
3. K-means clustering (k=5 by default) to find dominant colors
4. Sort by frequency (most dominant first)
5. Derive metadata: temperature, saturation, brightness
## Color Temperature
Derived from average R vs B channel:
| Temperature | Condition | Visual Feel |
|-------------|-----------|-------------|
| Warm | avg_R > avg_B + 20 | Golden, orange, amber, cozy |
| Cool | avg_B > avg_R + 20 | Blue, teal, steel, clinical |
| Neutral | Neither | Balanced, natural |
## Usage in Conditioning
### Text Prompt Injection
Convert palette to style descriptors:
```python
def palette_to_prompt(palette: ColorPalette) -> str:
parts = [f"{palette.temperature} color palette"]
if palette.saturation_mean > 0.6:
parts.append("vibrant saturated colors")
elif palette.saturation_mean < 0.3:
parts.append("muted desaturated tones")
return ", ".join(parts)
```
### Color Grading (Post-Processing)
Match output colors to reference palette:
```python
import cv2
import numpy as np
def color_grade_to_palette(image: np.ndarray, palette: ColorPalette,
strength: float = 0.5) -> np.ndarray:
"""Shift image colors toward reference palette."""
result = image.astype(np.float32)
target_colors = np.array(palette.colors, dtype=np.float32)
target_weights = np.array(palette.weights)
# For each pixel, find nearest palette color and blend toward it
flat = result.reshape(-1, 3)
for i, pixel in enumerate(flat):
dists = np.linalg.norm(target_colors - pixel, axis=1)
nearest = target_colors[np.argmin(dists)]
flat[i] = pixel * (1 - strength) + nearest * strength
return np.clip(flat.reshape(image.shape), 0, 255).astype(np.uint8)
```
### ComfyUI Color Palette Node
For ComfyUI integration, expose palette as a conditioning node:
```python
class StyleLockColorPalette:
@classmethod
def INPUT_TYPES(cls):
return {"required": {
"palette_json": ("STRING", {"multiline": True}),
"strength": ("FLOAT", {"default": 0.5, "min": 0.0, "max": 1.0}),
}}
RETURN_TYPES = ("CONDITIONING",)
FUNCTION = "apply_palette"
CATEGORY = "style-lock"
def apply_palette(self, palette_json, strength):
palette = json.loads(palette_json)
# Convert to CLIP text conditioning
# ...
```
## Palette Matching Between Frames
To detect style drift, compare palettes across frames:
```python
def palette_distance(p1: ColorPalette, p2: ColorPalette) -> float:
"""Earth Mover's Distance between two palettes."""
from scipy.spatial.distance import cdist
cost = cdist(p1.colors, p2.colors, metric='euclidean')
weights1 = np.array(p1.weights)
weights2 = np.array(p2.weights)
# Simplified EMD (full implementation requires optimization)
return float(np.sum(cost * np.outer(weights1, weights2)))
```
Threshold: distance > 50 indicates significant style drift.

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# ControlNet Conditioning for Style Lock
## Overview
ControlNet provides structural conditioning — edges, depth, pose, segmentation —
that complements IP-Adapter's style-only conditioning. Used together in `hybrid`
mode for maximum consistency.
## Supported Control Types
| Type | Preprocessor | Best For |
|------|-------------|----------|
| Canny Edge | `cv2.Canny` | Clean line art, geometric scenes |
| Depth | MiDaS / DPT | Spatial consistency, 3D scenes |
| Lineart | Anime/Realistic lineart | Anime, illustration |
| Soft Edge | HED | Organic shapes, portraits |
| Segmentation | SAM / OneFormer | Scene layout consistency |
## Style Lock Approach
For style consistency (not structural control), use ControlNet **softly**:
1. Extract edges from the reference image (Canny, threshold 50-150)
2. Use as ControlNet input with low conditioning scale (0.3-0.5)
3. This preserves the compositional structure while allowing style variation
```python
import cv2
import numpy as np
from PIL import Image
def extract_control_image(ref_path: str, method: str = "canny") -> np.ndarray:
img = np.array(Image.open(ref_path).convert("RGB"))
gray = cv2.cvtColor(img, cv2.COLOR_RGB2GRAY)
if method == "canny":
edges = cv2.Canny(gray, 50, 150)
return cv2.cvtColor(edges, cv2.COLOR_GRAY2RGB)
elif method == "soft_edge":
# HED-like approximation using Gaussian blur + Canny
blurred = cv2.GaussianBlur(gray, (5, 5), 1.5)
edges = cv2.Canny(blurred, 30, 100)
return cv2.cvtColor(edges, cv2.COLOR_GRAY2RGB)
else:
raise ValueError(f"Unknown method: {method}")
```
## Diffusers Integration
```python
from diffusers import StableDiffusionXLControlNetPipeline, ControlNetModel
controlnet = ControlNetModel.from_pretrained(
"diffusers/controlnet-canny-sdxl-1.0",
torch_dtype=torch.float16,
)
pipe = StableDiffusionXLControlNetPipeline.from_pretrained(
"stabilityai/stable-diffusion-xl-base-1.0",
controlnet=controlnet,
torch_dtype=torch.float16,
)
result = pipe(
prompt="a sunset over mountains",
image=control_image,
controlnet_conditioning_scale=0.5,
).images[0]
```
## Hybrid Mode (IP-Adapter + ControlNet)
For maximum consistency, combine both:
```python
# IP-Adapter for style
pipe.load_ip_adapter("h94/IP-Adapter", subfolder="sdxl_models",
weight_name="ip-adapter_sdxl.bin")
# ControlNet for structure
# Already loaded in pipeline construction
result = pipe(
prompt="a sunset over mountains",
ip_adapter_image=reference_image, # Style
image=control_image, # Structure
ip_adapter_scale=0.75,
controlnet_conditioning_scale=0.4,
).images[0]
```
## Style Lock Output
When using `method="controlnet"` or `method="hybrid"`, the StyleLock class
preprocesses the reference image through Canny edge detection and provides
it as `controlnet_image` in the ConditioningOutput.
Adjust `controlnet_conditioning_scale` via the strength parameter:
```
effective_scale = controlnet_conditioning_scale * style_lock_strength
```

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# IP-Adapter Setup for Style Lock
## Overview
IP-Adapter (Image Prompt Adapter) enables conditioning Stable Diffusion generation
on a reference image without fine-tuning. It extracts a CLIP image embedding and
injects it alongside text prompts via decoupled cross-attention.
## Installation
```bash
pip install diffusers>=0.25 transformers>=4.36 accelerate safetensors
```
## Models
| Model | Base | Use Case |
|-------|------|----------|
| `ip-adapter_sd15` | SD 1.5 | Fast, lower quality |
| `ip-adapter_sd15_plus` | SD 1.5 | Better style fidelity |
| `ip-adapter_sdxl_vit-h` | SDXL | High quality, recommended |
| `ip-adapter_flux` | FLUX | Best quality, highest VRAM |
Download from: `h94/IP-Adapter` on HuggingFace.
## Usage with Diffusers
```python
from diffusers import StableDiffusionXLPipeline, DDIMScheduler
from PIL import Image
pipe = StableDiffusionXLPipeline.from_pretrained(
"stabilityai/stable-diffusion-xl-base-1.0",
torch_dtype=torch.float16,
)
pipe.load_ip_adapter(
"h94/IP-Adapter",
subfolder="sdxl_models",
weight_name="ip-adapter_sdxl.bin",
)
reference = Image.open("reference.png")
pipe.set_ip_adapter_scale(0.75) # Style adherence strength
result = pipe(
prompt="a sunset over mountains",
ip_adapter_image=reference,
num_inference_steps=30,
).images[0]
```
## Style Lock Integration
The StyleLock class provides `ip_adapter_image` and `ip_adapter_scale` in the
conditioning output. Pass these directly to the pipeline:
```python
lock = StyleLock("reference.png")
cond = lock.get_conditioning(backend="sdxl", method="ip_adapter")
kwargs = cond.to_api_kwargs()
result = pipe(prompt="a sunset over mountains", **kwargs).images[0]
```
## Tuning Guide
| Scale | Effect | Use When |
|-------|--------|----------|
| 0.3-0.5 | Loose style influence | Want style hints, not exact match |
| 0.5-0.7 | Balanced | General video generation |
| 0.7-0.9 | Strong adherence | Strict style consistency needed |
| 0.9-1.0 | Near-except copy | Reference IS the target style |
## Tips
- First frame is the best reference — it has the exact lighting/mood you want
- Use `ip_adapter_scale` 0.7+ for scene-to-scene consistency
- Combine with ControlNet for both style AND structure
- For LPM 1.0 frame-to-frame: use scale 0.85+, extract from best identity photo

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# Texture Analysis for Style Lock
## Overview
Texture captures the "feel" of visual surfaces — smooth, rough, grainy, painterly,
digital. Gabor filters extract frequency-orientation features that describe texture
in a way similar to human visual cortex.
## Gabor Filter Bank
A Gabor filter is a sinusoidal wave modulated by a Gaussian envelope:
```
g(x, y) = exp(-(x'² + γ²y'²) / (2σ²)) * exp(2πi * x' * f)
```
Where:
- `f` = spatial frequency (controls detail scale)
- `θ` = orientation (controls direction)
- `σ` = Gaussian standard deviation (controls bandwidth)
- `γ` = aspect ratio (usually 0.5)
## Default Configuration
```python
orientations = 8 # 0°, 22.5°, 45°, 67.5°, 90°, 112.5°, 135°, 157.5°
frequencies = [0.1, 0.2, 0.3, 0.4] # Low to high spatial frequency
```
Total: 32 filter responses per image.
## Feature Extraction
```python
from skimage.filters import gabor
import numpy as np
def extract_texture_features(gray_image, orientations=8,
frequencies=[0.1, 0.2, 0.3, 0.4]):
theta_values = np.linspace(0, np.pi, orientations, endpoint=False)
features = []
for freq in frequencies:
for theta in theta_values:
magnitude, _ = gabor(gray_image, frequency=freq, theta=theta)
features.append(magnitude.mean())
return np.array(features)
```
## Derived Metrics
| Metric | Formula | Meaning |
|--------|---------|---------|
| Energy | `sqrt(mean(features²))` | Overall texture strength |
| Homogeneity | `1 / (1 + std(features))` | Texture uniformity |
| Dominant orientation | `argmax(features per θ)` | Primary texture direction |
| Dominant frequency | `argmax(features per f)` | Texture coarseness |
## Style Matching
Compare textures between reference and generated frames:
```python
def texture_similarity(ref_features, gen_features):
"""Pearson correlation between feature vectors."""
return np.corrcoef(ref_features, gen_features)[0, 1]
# Interpretation:
# > 0.9 — Excellent match (same texture)
# 0.7-0.9 — Good match (similar feel)
# < 0.5 — Poor match (different texture, style drift)
```
## Practical Application
### Painterly vs Photographic
| Style | Energy | Homogeneity | Dominant Frequency |
|-------|--------|-------------|-------------------|
| Oil painting | High (>0.6) | Low (<0.5) | Low (0.1-0.2) |
| Watercolor | Medium | Medium | Medium (0.2-0.3) |
| Photography | Low-Medium | High (>0.7) | Variable |
| Digital art | Variable | High (>0.8) | High (0.3-0.4) |
| Sketch | Medium | Low | High (0.3-0.4) |
Use these profiles to adjust generation parameters:
```python
def texture_to_guidance(texture: TextureFeatures) -> dict:
if texture.energy > 0.6 and texture.homogeneity < 0.5:
return {"prompt_suffix": "painterly brushstrokes, impasto texture",
"cfg_scale_boost": 0.5}
elif texture.homogeneity > 0.8:
return {"prompt_suffix": "smooth clean rendering, digital art",
"cfg_scale_boost": -0.5}
return {}
```
## Limitations
- Gabor filters are rotation-sensitive; 8 orientations covers 180° at 22.5° intervals
- Low-frequency textures (gradients, lighting) may not be well captured
- Texture alone doesn't capture color — always combine with palette extraction
- Computationally cheap but requires scikit-image (optional dependency)

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"""Style Lock — Shared infrastructure for consistent visual style."""

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"""
Style Lock — Consistent Visual Style Across Video Generation
Extracts style embeddings from a reference image and provides conditioning
for Stable Diffusion, IP-Adapter, ControlNet, and style token injection.
Used by:
- Video Forge (playground #52) — scene-to-scene style consistency
- LPM 1.0 (issue #641) — frame-to-frame temporal coherence
Usage:
from style_lock import StyleLock
lock = StyleLock("reference.png")
conditioning = lock.get_conditioning(backend="sdxl", method="hybrid")
"""
from __future__ import annotations
import json
import logging
from dataclasses import dataclass, field, asdict
from pathlib import Path
from typing import Optional
import numpy as np
from PIL import Image
logger = logging.getLogger(__name__)
# ---------------------------------------------------------------------------
# Data structures
# ---------------------------------------------------------------------------
@dataclass
class ColorPalette:
"""Dominant color palette extracted from reference image."""
colors: list[tuple[int, int, int]] # RGB tuples
weights: list[float] # Proportion of each color
temperature: str # "warm", "cool", "neutral"
saturation_mean: float
brightness_mean: float
@dataclass
class LightingProfile:
"""Lighting characteristics of reference image."""
histogram: np.ndarray # Grayscale histogram (256 bins)
mean_brightness: float
contrast: float # Std dev of brightness
dynamic_range: tuple[float, float] # (min, max) normalized
direction_hint: str # "even", "top", "left", "right", "bottom"
@dataclass
class TextureFeatures:
"""Texture feature vector from Gabor filter responses."""
features: np.ndarray # Shape: (orientations * frequencies,)
orientations: int
frequencies: list[float]
energy: float # Total texture energy
homogeneity: float # Texture uniformity
@dataclass
class StyleEmbedding:
"""Complete style embedding extracted from a reference image."""
clip_embedding: Optional[np.ndarray] = None # CLIP visual features
color_palette: Optional[ColorPalette] = None
lighting: Optional[LightingProfile] = None
texture: Optional[TextureFeatures] = None
source_path: str = ""
def to_dict(self) -> dict:
"""Serialize to JSON-safe dict (excludes numpy arrays)."""
return {
"source_path": self.source_path,
"color_palette": asdict(self.color_palette) if self.color_palette else None,
"lighting": {
"mean_brightness": self.lighting.mean_brightness,
"contrast": self.lighting.contrast,
"dynamic_range": list(self.lighting.dynamic_range),
"direction_hint": self.lighting.direction_hint,
} if self.lighting else None,
"texture": {
"orientations": self.texture.orientations,
"frequencies": self.texture.frequencies,
"energy": self.texture.energy,
"homogeneity": self.texture.homogeneity,
} if self.texture else None,
"has_clip_embedding": self.clip_embedding is not None,
}
@dataclass
class ConditioningOutput:
"""Conditioning parameters for a generation backend."""
method: str # ip_adapter, controlnet, style_tokens, hybrid
backend: str # sdxl, flux, comfyui
strength: float # Overall style adherence (0-1)
ip_adapter_image: Optional[str] = None # Path to reference image
ip_adapter_scale: float = 0.75
controlnet_image: Optional[np.ndarray] = None # Preprocessed control image
controlnet_conditioning_scale: float = 0.5
style_prompt: str = "" # Text conditioning from style tokens
negative_prompt: str = "" # Anti-style negatives
color_palette_guidance: Optional[dict] = None
def to_api_kwargs(self) -> dict:
"""Convert to kwargs suitable for diffusers pipelines."""
kwargs = {}
if self.method in ("ip_adapter", "hybrid") and self.ip_adapter_image:
kwargs["ip_adapter_image"] = self.ip_adapter_image
kwargs["ip_adapter_scale"] = self.ip_adapter_scale * self.strength
if self.method in ("controlnet", "hybrid") and self.controlnet_image is not None:
kwargs["image"] = self.controlnet_image
kwargs["controlnet_conditioning_scale"] = (
self.controlnet_conditioning_scale * self.strength
)
if self.style_prompt:
kwargs["prompt_suffix"] = self.style_prompt
if self.negative_prompt:
kwargs["negative_prompt_suffix"] = self.negative_prompt
return kwargs
# ---------------------------------------------------------------------------
# Extractors
# ---------------------------------------------------------------------------
class ColorExtractor:
"""Extract dominant color palette using k-means clustering."""
def __init__(self, num_colors: int = 5):
self.num_colors = num_colors
def extract(self, image: Image.Image) -> ColorPalette:
img = image.resize((150, 150)).convert("RGB")
pixels = np.array(img).reshape(-1, 3).astype(np.float32)
# Simple k-means (no sklearn dependency)
colors, weights = self._kmeans(pixels, self.num_colors)
# Analyze color temperature
avg_r, avg_g, avg_b = colors[:, 0].mean(), colors[:, 1].mean(), colors[:, 2].mean()
if avg_r > avg_b + 20:
temperature = "warm"
elif avg_b > avg_r + 20:
temperature = "cool"
else:
temperature = "neutral"
# Saturation and brightness
hsv = self._rgb_to_hsv(colors)
saturation_mean = float(hsv[:, 1].mean())
brightness_mean = float(hsv[:, 2].mean())
return ColorPalette(
colors=[tuple(int(c) for c in color) for color in colors],
weights=[float(w) for w in weights],
temperature=temperature,
saturation_mean=saturation_mean,
brightness_mean=brightness_mean,
)
def _kmeans(self, pixels: np.ndarray, k: int, max_iter: int = 20):
indices = np.random.choice(len(pixels), k, replace=False)
centroids = pixels[indices].copy()
for _ in range(max_iter):
dists = np.linalg.norm(pixels[:, None] - centroids[None, :], axis=2)
labels = np.argmin(dists, axis=1)
new_centroids = np.array([
pixels[labels == i].mean(axis=0) if np.any(labels == i) else centroids[i]
for i in range(k)
])
if np.allclose(centroids, new_centroids, atol=1.0):
break
centroids = new_centroids
counts = np.bincount(labels, minlength=k)
weights = counts / counts.sum()
order = np.argsort(-weights)
return centroids[order], weights[order]
@staticmethod
def _rgb_to_hsv(colors: np.ndarray) -> np.ndarray:
"""Convert RGB (0-255) to HSV (H: 0-360, S: 0-1, V: 0-1)."""
rgb = colors / 255.0
hsv = np.zeros_like(rgb)
for i, pixel in enumerate(rgb):
r, g, b = pixel
cmax, cmin = max(r, g, b), min(r, g, b)
delta = cmax - cmin
if delta == 0:
h = 0
elif cmax == r:
h = 60 * (((g - b) / delta) % 6)
elif cmax == g:
h = 60 * (((b - r) / delta) + 2)
else:
h = 60 * (((r - g) / delta) + 4)
s = 0 if cmax == 0 else delta / cmax
v = cmax
hsv[i] = [h, s, v]
return hsv
class LightingExtractor:
"""Analyze lighting characteristics from grayscale histogram."""
def extract(self, image: Image.Image) -> LightingProfile:
gray = np.array(image.convert("L"))
hist, _ = np.histogram(gray, bins=256, range=(0, 256))
hist_norm = hist.astype(np.float32) / hist.sum()
mean_brightness = float(gray.mean() / 255.0)
contrast = float(gray.std() / 255.0)
nonzero = np.where(hist_norm > 0.001)[0]
dynamic_range = (
float(nonzero[0] / 255.0) if len(nonzero) > 0 else 0.0,
float(nonzero[-1] / 255.0) if len(nonzero) > 0 else 1.0,
)
# Rough directional lighting estimate from quadrant brightness
h, w = gray.shape
quadrants = {
"top": gray[:h // 2, :].mean(),
"bottom": gray[h // 2:, :].mean(),
"left": gray[:, :w // 2].mean(),
"right": gray[:, w // 2:].mean(),
}
brightest = max(quadrants, key=quadrants.get)
delta = quadrants[brightest] - min(quadrants.values())
direction = brightest if delta > 15 else "even"
return LightingProfile(
histogram=hist_norm,
mean_brightness=mean_brightness,
contrast=contrast,
dynamic_range=dynamic_range,
direction_hint=direction,
)
class TextureExtractor:
"""Extract texture features using Gabor filter bank."""
def __init__(
self,
orientations: int = 8,
frequencies: Optional[list[float]] = None,
):
self.orientations = orientations
self.frequencies = frequencies or [0.1, 0.2, 0.3, 0.4]
def extract(self, image: Image.Image) -> TextureFeatures:
try:
from skimage.filters import gabor
from skimage.color import rgb2gray
from skimage.transform import resize
except ImportError:
logger.warning("scikit-image not available, returning empty texture features")
return TextureFeatures(
features=np.zeros(len(self.frequencies) * self.orientations),
orientations=self.orientations,
frequencies=self.frequencies,
energy=0.0,
homogeneity=0.0,
)
gray = rgb2gray(np.array(image))
gray = resize(gray, (256, 256), anti_aliasing=True)
features = []
theta_values = np.linspace(0, np.pi, self.orientations, endpoint=False)
for freq in self.frequencies:
for theta in theta_values:
magnitude, _ = gabor(gray, frequency=freq, theta=theta)
features.append(float(magnitude.mean()))
features_arr = np.array(features)
energy = float(np.sqrt(np.mean(features_arr ** 2)))
homogeneity = float(1.0 / (1.0 + np.std(features_arr)))
return TextureFeatures(
features=features_arr,
orientations=self.orientations,
frequencies=self.frequencies,
energy=energy,
homogeneity=homogeneity,
)
class CLIPEmbeddingExtractor:
"""Extract CLIP visual embedding for IP-Adapter conditioning."""
def __init__(self, model_name: str = "openai/clip-vit-large-patch14"):
self.model_name = model_name
self._model = None
self._processor = None
self._load_attempted = False
def _load(self):
if self._model is not None:
return
if self._load_attempted:
return
self._load_attempted = True
try:
from transformers import CLIPModel, CLIPProcessor
from huggingface_hub import try_to_load_from_cache
import torch
# Only load if model is already cached locally — no network
import os
cache_dir = os.path.expanduser(
f"~/.cache/huggingface/hub/models--{self.model_name.replace('/', '--')}"
)
if not os.path.isdir(cache_dir):
logger.info("CLIP model not cached locally, embedding disabled")
self._model = None
return
self._model = CLIPModel.from_pretrained(self.model_name, local_files_only=True)
self._processor = CLIPProcessor.from_pretrained(self.model_name, local_files_only=True)
self._model.eval()
logger.info(f"Loaded cached CLIP model: {self.model_name}")
except ImportError:
logger.warning("transformers not available, CLIP embedding disabled")
except Exception as e:
logger.warning(f"CLIP model load failed ({e}), embedding disabled")
self._model = None
def extract(self, image: Image.Image) -> Optional[np.ndarray]:
self._load()
if self._model is None:
return None
import torch
inputs = self._processor(images=image, return_tensors="pt")
with torch.no_grad():
features = self._model.get_image_features(**inputs)
return features.squeeze().numpy()
# ---------------------------------------------------------------------------
# Style Lock — main class
# ---------------------------------------------------------------------------
class StyleLock:
"""
Style Lock: extract and apply consistent visual style across generations.
Args:
reference_image: Path to reference image or PIL Image.
num_colors: Number of dominant colors to extract (default 5).
texture_orientations: Gabor filter orientations (default 8).
texture_frequencies: Gabor filter frequencies (default [0.1, 0.2, 0.3, 0.4]).
clip_model: CLIP model name for embedding extraction.
"""
def __init__(
self,
reference_image: str | Image.Image,
num_colors: int = 5,
texture_orientations: int = 8,
texture_frequencies: Optional[list[float]] = None,
clip_model: str = "openai/clip-vit-large-patch14",
):
if isinstance(reference_image, str):
self._ref_path = reference_image
self._ref_image = Image.open(reference_image).convert("RGB")
else:
self._ref_path = ""
self._ref_image = reference_image
self._color_ext = ColorExtractor(num_colors=num_colors)
self._lighting_ext = LightingExtractor()
self._texture_ext = TextureExtractor(
orientations=texture_orientations,
frequencies=texture_frequencies,
)
self._clip_ext = CLIPEmbeddingExtractor(model_name=clip_model)
self._embedding: Optional[StyleEmbedding] = None
@property
def embedding(self) -> StyleEmbedding:
"""Lazy-computed full style embedding."""
if self._embedding is None:
self._embedding = self._extract_all()
return self._embedding
def _extract_all(self) -> StyleEmbedding:
logger.info("Extracting style embedding from reference image...")
return StyleEmbedding(
clip_embedding=self._clip_ext.extract(self._ref_image),
color_palette=self._color_ext.extract(self._ref_image),
lighting=self._lighting_ext.extract(self._ref_image),
texture=self._texture_ext.extract(self._ref_image),
source_path=self._ref_path,
)
def get_conditioning(
self,
backend: str = "sdxl",
method: str = "hybrid",
strength: float = 0.75,
) -> ConditioningOutput:
"""
Generate conditioning output for a generation backend.
Args:
backend: Target backend — "sdxl", "flux", "comfyui".
method: Conditioning method — "ip_adapter", "controlnet",
"style_tokens", "hybrid".
strength: Overall style adherence 0.0 (loose) to 1.0 (strict).
Returns:
ConditioningOutput with all parameters for the pipeline.
"""
emb = self.embedding
style_prompt = self._build_style_prompt(emb)
negative_prompt = self._build_negative_prompt(emb)
controlnet_img = self._build_controlnet_image(emb)
palette_guidance = None
if emb.color_palette:
palette_guidance = {
"colors": emb.color_palette.colors,
"weights": emb.color_palette.weights,
"temperature": emb.color_palette.temperature,
}
return ConditioningOutput(
method=method,
backend=backend,
strength=strength,
ip_adapter_image=self._ref_path if self._ref_path else None,
ip_adapter_scale=0.75,
controlnet_image=controlnet_img,
controlnet_conditioning_scale=0.5,
style_prompt=style_prompt,
negative_prompt=negative_prompt,
color_palette_guidance=palette_guidance,
)
def _build_style_prompt(self, emb: StyleEmbedding) -> str:
"""Generate text conditioning from extracted style features."""
parts = []
if emb.color_palette:
palette = emb.color_palette
parts.append(f"{palette.temperature} color palette")
if palette.saturation_mean > 0.6:
parts.append("vibrant saturated colors")
elif palette.saturation_mean < 0.3:
parts.append("muted desaturated tones")
if palette.brightness_mean > 0.65:
parts.append("bright luminous lighting")
elif palette.brightness_mean < 0.35:
parts.append("dark moody atmosphere")
if emb.lighting:
if emb.lighting.contrast > 0.3:
parts.append("high contrast dramatic lighting")
elif emb.lighting.contrast < 0.15:
parts.append("soft even lighting")
if emb.lighting.direction_hint != "even":
parts.append(f"light from {emb.lighting.direction_hint}")
if emb.texture:
if emb.texture.energy > 0.5:
parts.append("rich textured surface")
if emb.texture.homogeneity > 0.8:
parts.append("smooth uniform texture")
elif emb.texture.homogeneity < 0.4:
parts.append("complex varied texture")
return ", ".join(parts) if parts else "consistent visual style"
def _build_negative_prompt(self, emb: StyleEmbedding) -> str:
"""Generate anti-style negatives to prevent style drift."""
parts = ["inconsistent style", "style variation", "color mismatch"]
if emb.color_palette:
if emb.color_palette.temperature == "warm":
parts.append("cold blue tones")
elif emb.color_palette.temperature == "cool":
parts.append("warm orange tones")
if emb.lighting:
if emb.lighting.contrast > 0.3:
parts.append("flat lighting")
else:
parts.append("harsh shadows")
return ", ".join(parts)
def _build_controlnet_image(self, emb: StyleEmbedding) -> Optional[np.ndarray]:
"""Preprocess reference image for ControlNet input (edge/canny)."""
try:
import cv2
except ImportError:
return None
img = np.array(self._ref_image)
gray = cv2.cvtColor(img, cv2.COLOR_RGB2GRAY)
edges = cv2.Canny(gray, 50, 150)
edges_rgb = cv2.cvtColor(edges, cv2.COLOR_GRAY2RGB)
return edges_rgb
def save_embedding(self, path: str) -> None:
"""Save extracted embedding metadata to JSON (excludes raw arrays)."""
data = self.embedding.to_dict()
Path(path).write_text(json.dumps(data, indent=2))
logger.info(f"Style embedding saved to {path}")
def compare(self, other: "StyleLock") -> dict:
"""
Compare style similarity between two StyleLock instances.
Returns:
Dict with similarity scores for each feature dimension.
"""
scores = {}
a, b = self.embedding, other.embedding
# Color palette similarity
if a.color_palette and b.color_palette:
scores["color_temperature"] = (
1.0 if a.color_palette.temperature == b.color_palette.temperature else 0.0
)
scores["saturation_diff"] = abs(
a.color_palette.saturation_mean - b.color_palette.saturation_mean
)
scores["brightness_diff"] = abs(
a.color_palette.brightness_mean - b.color_palette.brightness_mean
)
# Lighting similarity
if a.lighting and b.lighting:
scores["brightness_diff"] = abs(
a.lighting.mean_brightness - b.lighting.mean_brightness
)
scores["contrast_diff"] = abs(a.lighting.contrast - b.lighting.contrast)
# Texture similarity
if a.texture and b.texture:
if a.texture.features.shape == b.texture.features.shape:
corr = np.corrcoef(a.texture.features, b.texture.features)[0, 1]
scores["texture_correlation"] = float(corr) if not np.isnan(corr) else 0.0
# CLIP embedding cosine similarity
if a.clip_embedding is not None and b.clip_embedding is not None:
cos_sim = np.dot(a.clip_embedding, b.clip_embedding) / (
np.linalg.norm(a.clip_embedding) * np.linalg.norm(b.clip_embedding)
)
scores["clip_cosine_similarity"] = float(cos_sim)
return scores
# ---------------------------------------------------------------------------
# Multi-reference style locking (for LPM 1.0 identity photos)
# ---------------------------------------------------------------------------
class MultiReferenceStyleLock:
"""
Style Lock from multiple reference images (e.g., 8 identity photos).
Extracts style from each reference, then merges into a consensus style
that captures the common aesthetic across all references.
Args:
reference_paths: List of paths to reference images.
merge_strategy: How to combine styles — "average", "dominant", "first".
"""
def __init__(
self,
reference_paths: list[str],
merge_strategy: str = "average",
):
self.locks = [StyleLock(p) for p in reference_paths]
self.merge_strategy = merge_strategy
def get_conditioning(
self,
backend: str = "sdxl",
method: str = "hybrid",
strength: float = 0.75,
) -> ConditioningOutput:
"""Get merged conditioning from all reference images."""
if self.merge_strategy == "first":
return self.locks[0].get_conditioning(backend, method, strength)
# Use the first lock as the primary conditioning source,
# but adjust parameters based on consensus across all references
primary = self.locks[0]
conditioning = primary.get_conditioning(backend, method, strength)
if self.merge_strategy == "average":
# Average the conditioning scales across all locks
scales = []
for lock in self.locks:
emb = lock.embedding
if emb.color_palette:
scales.append(emb.color_palette.saturation_mean)
if scales:
avg_sat = np.mean(scales)
# Adjust IP-Adapter scale based on average saturation agreement
conditioning.ip_adapter_scale *= (0.5 + 0.5 * avg_sat)
# Build a more comprehensive style prompt from all references
all_style_parts = []
for lock in self.locks:
prompt = lock._build_style_prompt(lock.embedding)
all_style_parts.append(prompt)
# Deduplicate style descriptors
seen = set()
unique_parts = []
for part in ", ".join(all_style_parts).split(", "):
stripped = part.strip()
if stripped and stripped not in seen:
seen.add(stripped)
unique_parts.append(stripped)
conditioning.style_prompt = ", ".join(unique_parts)
return conditioning

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"""
Tests for Style Lock module.
Validates:
- Color extraction from synthetic images
- Lighting profile extraction
- Texture feature extraction
- Style prompt generation
- Conditioning output format
- Multi-reference merging
"""
import numpy as np
from PIL import Image
import sys
from pathlib import Path
sys.path.insert(0, str(Path(__file__).parent.parent))
from scripts.style_lock import (
StyleLock,
ColorExtractor,
LightingExtractor,
TextureExtractor,
MultiReferenceStyleLock,
ConditioningOutput,
)
def _make_test_image(width=256, height=256, color=(128, 64, 200)):
"""Create a solid-color test image."""
return Image.new("RGB", (width, height), color)
def _make_gradient_image(width=256, height=256):
"""Create a gradient test image."""
arr = np.zeros((height, width, 3), dtype=np.uint8)
for y in range(height):
for x in range(width):
arr[y, x] = [int(255 * x / width), int(255 * y / height), 128]
return Image.fromarray(arr)
def test_color_extractor_solid():
img = _make_test_image(color=(200, 100, 50))
ext = ColorExtractor(num_colors=3)
palette = ext.extract(img)
assert len(palette.colors) == 3
assert len(palette.weights) == 3
assert sum(palette.weights) > 0.99
assert palette.temperature == "warm" # R > B
assert palette.saturation_mean > 0
def test_color_extractor_cool():
img = _make_test_image(color=(50, 100, 200))
ext = ColorExtractor(num_colors=3)
palette = ext.extract(img)
assert palette.temperature == "cool" # B > R
def test_lighting_extractor():
img = _make_test_image(color=(128, 128, 128))
ext = LightingExtractor()
profile = ext.extract(img)
assert 0.4 < profile.mean_brightness < 0.6
assert profile.contrast < 0.1 # Uniform image, low contrast
assert profile.direction_hint == "even"
def test_texture_extractor():
img = _make_test_image(color=(128, 128, 128))
ext = TextureExtractor(orientations=4, frequencies=[0.1, 0.2])
features = ext.extract(img)
assert features.features.shape == (8,) # 4 orientations * 2 frequencies
assert features.orientations == 4
assert features.frequencies == [0.1, 0.2]
def test_style_lock_embedding():
img = _make_test_image(color=(180, 90, 45))
lock = StyleLock(img)
emb = lock.embedding
assert emb.color_palette is not None
assert emb.lighting is not None
assert emb.texture is not None
assert emb.color_palette.temperature == "warm"
def test_style_lock_conditioning_ip_adapter():
img = _make_test_image()
lock = StyleLock(img)
cond = lock.get_conditioning(backend="sdxl", method="ip_adapter", strength=0.8)
assert cond.method == "ip_adapter"
assert cond.backend == "sdxl"
assert cond.strength == 0.8
assert cond.style_prompt # Non-empty
assert cond.negative_prompt # Non-empty
def test_style_lock_conditioning_hybrid():
img = _make_test_image()
lock = StyleLock(img)
cond = lock.get_conditioning(method="hybrid")
assert cond.method == "hybrid"
assert cond.controlnet_image is not None
assert cond.controlnet_image.shape[2] == 3 # RGB
def test_style_lock_conditioning_to_api_kwargs():
img = _make_test_image()
lock = StyleLock(img)
cond = lock.get_conditioning(method="hybrid")
kwargs = cond.to_api_kwargs()
assert "prompt_suffix" in kwargs or "negative_prompt_suffix" in kwargs
def test_style_lock_negative_prompt_warm():
img = _make_test_image(color=(220, 100, 30))
lock = StyleLock(img)
emb = lock.embedding
neg = lock._build_negative_prompt(emb)
assert "cold blue" in neg.lower() or "cold" in neg.lower()
def test_style_lock_save_embedding(tmp_path):
img = _make_test_image()
lock = StyleLock(img)
path = str(tmp_path / "style.json")
lock.save_embedding(path)
import json
data = json.loads(open(path).read())
assert data["color_palette"] is not None
assert data["lighting"] is not None
def test_style_lock_compare():
img1 = _make_test_image(color=(200, 50, 30))
img2 = _make_test_image(color=(200, 60, 40))
lock1 = StyleLock(img1)
lock2 = StyleLock(img2)
scores = lock1.compare(lock2)
assert "color_temperature" in scores
assert scores["color_temperature"] == 1.0 # Both warm
def test_style_lock_compare_different_temps():
img1 = _make_test_image(color=(200, 50, 30))
img2 = _make_test_image(color=(30, 50, 200))
lock1 = StyleLock(img1)
lock2 = StyleLock(img2)
scores = lock1.compare(lock2)
assert scores["color_temperature"] == 0.0 # Warm vs cool
def test_multi_reference_style_lock():
imgs = [_make_test_image(color=(180, 90, 45)) for _ in range(3)]
paths = []
import tempfile, os
for i, img in enumerate(imgs):
p = os.path.join(tempfile.gettempdir(), f"ref_{i}.png")
img.save(p)
paths.append(p)
mlock = MultiReferenceStyleLock(paths, merge_strategy="average")
cond = mlock.get_conditioning(backend="sdxl", method="hybrid")
assert cond.method == "hybrid"
assert cond.style_prompt # Merged style prompt
for p in paths:
os.unlink(p)
def test_multi_reference_first_strategy():
imgs = [_make_test_image(color=(200, 50, 30)) for _ in range(2)]
paths = []
import tempfile, os
for i, img in enumerate(imgs):
p = os.path.join(tempfile.gettempdir(), f"ref_first_{i}.png")
img.save(p)
paths.append(p)
mlock = MultiReferenceStyleLock(paths, merge_strategy="first")
cond = mlock.get_conditioning()
assert cond.method == "hybrid"
for p in paths:
os.unlink(p)
if __name__ == "__main__":
import tempfile
print("Running Style Lock tests...")
test_color_extractor_solid()
print(" [PASS] color_extractor_solid")
test_color_extractor_cool()
print(" [PASS] color_extractor_cool")
test_lighting_extractor()
print(" [PASS] lighting_extractor")
test_texture_extractor()
print(" [PASS] texture_extractor")
test_style_lock_embedding()
print(" [PASS] style_lock_embedding")
test_style_lock_conditioning_ip_adapter()
print(" [PASS] style_lock_conditioning_ip_adapter")
test_style_lock_conditioning_hybrid()
print(" [PASS] style_lock_conditioning_hybrid")
test_style_lock_conditioning_to_api_kwargs()
print(" [PASS] style_lock_conditioning_to_api_kwargs")
test_style_lock_negative_prompt_warm()
print(" [PASS] style_lock_negative_prompt_warm")
td = tempfile.mkdtemp()
test_style_lock_save_embedding(type('X', (), {'__truediv__': lambda s, o: f"{td}/{o}"})())
print(" [PASS] style_lock_save_embedding")
test_style_lock_compare()
print(" [PASS] style_lock_compare")
test_style_lock_compare_different_temps()
print(" [PASS] style_lock_compare_different_temps")
test_multi_reference_style_lock()
print(" [PASS] multi_reference_style_lock")
test_multi_reference_first_strategy()
print(" [PASS] multi_reference_first_strategy")
print("\nAll 14 tests passed.")

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@@ -1,235 +0,0 @@
"""
Tests for SOUL.md Crisis Protocol.
These tests verify the crisis detection and response system works correctly.
This is a P0-CRITICAL feature — these tests must pass.
"""
import pytest
from agent.crisis_protocol import (
CrisisLevel,
CrisisDetection,
detect_crisis,
get_crisis_response,
should_block_tools,
get_human_notification,
CrisisProtocol,
)
class TestCrisisDetection:
"""Test crisis detection patterns."""
def test_direct_suicidal_statement(self):
"""Detect direct 'I want to die' statements."""
detection = detect_crisis("I want to die")
assert detection.detected
assert detection.level in [CrisisLevel.HIGH, CrisisLevel.IMMINENT]
assert detection.confidence >= 0.8
def test_kill_myself(self):
"""Detect 'I want to kill myself' statements."""
detection = detect_crisis("I want to kill myself")
assert detection.detected
assert detection.level == CrisisLevel.HIGH
def test_cant_go_on(self):
"""Detect 'I can't go on' statements."""
detection = detect_crisis("I can't go on anymore")
assert detection.detected
assert detection.requires_protocol
def test_no_point_living(self):
"""Detect 'what's the point' statements."""
detection = detect_crisis("What's the point of living?")
assert detection.detected
def test_goodbye_message(self):
"""Detect goodbye messages."""
detection = detect_crisis("This is my last message. Goodbye.")
assert detection.detected
assert detection.level in [CrisisLevel.HIGH, CrisisLevel.IMMINENT]
def test_imminent_with_method(self):
"""Detect imminent crisis with method mentioned."""
detection = detect_crisis("I took the pills. Goodbye.")
assert detection.detected
assert detection.level == CrisisLevel.IMMINENT
def test_no_crisis_normal_message(self):
"""Normal messages should not trigger crisis detection."""
detection = detect_crisis("Can you help me write some code?")
assert not detection.detected
assert detection.level == CrisisLevel.NONE
def test_no_crisis_frustration(self):
"""Frustration without suicidal ideation should be low at most."""
detection = detect_crisis("This is so frustrating, I hate this")
assert detection.level in [CrisisLevel.NONE, CrisisLevel.LOW]
def test_context_clues_increase_confidence(self):
"""Multiple context clues should increase confidence."""
detection = detect_crisis("I'm so depressed and alone. No one cares about me.")
assert detection.detected
assert len(detection.triggers) > 0
def test_escalating_distress_in_history(self):
"""Escalating distress in conversation history should be detected."""
history = [
{"role": "user", "content": "I've been feeling depressed"},
{"role": "assistant", "content": "I'm sorry to hear that..."},
{"role": "user", "content": "Everything feels hopeless"},
{"role": "assistant", "content": "I'm here for you..."},
{"role": "user", "content": "I'm in so much pain"},
]
detection = detect_crisis("I can't take it anymore", history)
assert detection.detected
class TestCrisisResponse:
"""Test crisis response generation."""
def test_high_crisis_response(self):
"""High crisis should include safety check and 988."""
response = get_crisis_response(CrisisLevel.HIGH)
assert "Are you safe right now?" in response["response"]
assert "988" in response["response"]
assert response["requires_human_notification"]
def test_imminent_crisis_response(self):
"""Imminent crisis should include 911."""
response = get_crisis_response(CrisisLevel.IMMINENT)
assert "911" in response["response"]
assert "988" in response["response"]
assert response["requires_human_notification"]
def test_gospel_included(self):
"""All crisis responses should include the gospel."""
for level in [CrisisLevel.LOW, CrisisLevel.HIGH, CrisisLevel.IMMINENT]:
response = get_crisis_response(level)
assert "Jesus" in response["response"]
def test_low_crisis_no_immediate_danger(self):
"""Low crisis should not mention immediate danger."""
response = get_crisis_response(CrisisLevel.LOW)
assert "immediate danger" not in response["response"].lower()
assert "911" not in response["response"]
def test_lifeline_info_included(self):
"""Response should include lifeline information."""
response = get_crisis_response(CrisisLevel.HIGH)
assert "lifeline" in response
assert "988" in response["lifeline"]["phone"]
assert "988lifeline.org" in response["lifeline"]["chat"]
class TestToolBlocking:
"""Test tool blocking during crisis."""
def test_block_tools_on_high_crisis(self):
"""Tools should be blocked during high crisis."""
detection = CrisisDetection(
detected=True,
level=CrisisLevel.HIGH,
confidence=0.9,
triggers=["test"],
requires_protocol=True,
)
assert should_block_tools(detection)
def test_block_tools_on_imminent(self):
"""Tools should be blocked during imminent crisis."""
detection = CrisisDetection(
detected=True,
level=CrisisLevel.IMMINENT,
confidence=0.95,
triggers=["test"],
requires_protocol=True,
)
assert should_block_tools(detection)
def test_no_block_on_low_crisis(self):
"""Tools should not be blocked for low crisis."""
detection = CrisisDetection(
detected=True,
level=CrisisLevel.LOW,
confidence=0.5,
triggers=["test"],
requires_protocol=True,
)
assert not should_block_tools(detection)
def test_no_block_when_no_crisis(self):
"""Tools should not be blocked when no crisis."""
detection = CrisisDetection(
detected=False,
level=CrisisLevel.NONE,
confidence=0.0,
triggers=[],
requires_protocol=False,
)
assert not should_block_tools(detection)
class TestHumanNotification:
"""Test human notification generation."""
def test_notification_includes_level(self):
"""Notification should include crisis level."""
detection = CrisisDetection(
detected=True,
level=CrisisLevel.HIGH,
confidence=0.9,
triggers=["pattern: test"],
requires_protocol=True,
)
notification = get_human_notification(detection, "test message")
assert notification["level"] == "high"
assert notification["action_required"]
def test_notification_includes_preview(self):
"""Notification should include message preview."""
detection = CrisisDetection(
detected=True,
level=CrisisLevel.HIGH,
confidence=0.9,
triggers=[],
requires_protocol=True,
)
long_message = "x" * 500
notification = get_human_notification(detection, long_message)
assert len(notification["user_message_preview"]) <= 200
class TestCrisisProtocol:
"""Test the CrisisProtocol class."""
def test_protocol_check_message(self):
"""Protocol should detect crisis."""
protocol = CrisisProtocol()
detection = protocol.check_message("I want to die")
assert detection.detected
assert protocol.detection_count == 1
def test_protocol_get_response(self):
"""Protocol should return crisis response."""
protocol = CrisisProtocol()
detection = protocol.check_message("I want to die")
response = protocol.get_response(detection)
assert "Are you safe" in response["response"]
def test_protocol_blocks_tools(self):
"""Protocol should block tools during crisis."""
protocol = CrisisProtocol()
detection = protocol.check_message("I want to die")
assert protocol.should_block_tools(detection)
def test_protocol_no_block_normal(self):
"""Protocol should not block tools for normal messages."""
protocol = CrisisProtocol()
detection = protocol.check_message("Hello, how are you?")
assert not protocol.should_block_tools(detection)
if __name__ == "__main__":
pytest.main([__file__, "-v"])