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progress-photo-analyzer

progress-photo-analyzer

github.com/datadrivenconstruction数据与数据库375108 次安装1 周前更新
代码仓库

关于 progress-photo-analyzer

面向施工团队的现场照片分析技能,可提取进度信息、发现安全隐患,并将现场情况与 BIM 模型比较,生成结构化记录。

主要功能

  1. 01登记并分析现场照片
  2. 02按日期范围汇总进度
  3. 03检测安全问题
  4. 04与 BIM 模型比较
  5. 05导出 Excel 报告

适用场景

  1. 01编制每日施工进度报告
  2. 02检查照片中的安全问题
  3. 03导出照片分析结果至 Excel

安装

复制下面的命令,在终端中运行。

$npx skills add https://github.com/datadrivenconstruction/ddc_skills_for_ai_agents_in_construction --skill progress-photo-analyzer

安装后在 Claude Code 中输入/progress-photo-analyzer确认已加载。

附带文件claw.jsoninstructions.md

详细介绍

进度照片分析器

业务案例

问题陈述

现场照片未能充分用于进度跟踪:

  • 人工审核耗时
  • 进度评估带有主观性
  • 无法与计划进行系统性比较
  • 可能会遗漏安全问题
解决方案

基于 AI 的照片分析系统,可提取进度信息、检测安全隐患,并将现场情况与 BIM 模型进行比较。

业务价值
  • 自动化 - 减少人工照片审核
  • 准确性 - 客观衡量进度
  • 安全性 - 自动检测隐患
  • 文档记录 - 结构化的照片记录

技术实现

import pandas as pd
from datetime import datetime, date
from typing import Dict, Any, List, Optional, Tuple
from dataclasses import dataclass, field
from enum import Enum
from pathlib import Path
import base64


class PhotoType(Enum):
    """Types of construction photos."""
    PROGRESS = "progress"
    SAFETY = "safety"
    QUALITY = "quality"
    GENERAL = "general"
    DELIVERY = "delivery"


class AnalysisStatus(Enum):
    """Analysis status."""
    PENDING = "pending"
    ANALYZING = "analyzing"
    COMPLETED = "completed"
    FAILED = "failed"


class SafetyIssue(Enum):
    """Detected safety issues."""
    MISSING_PPE = "missing_ppe"
    FALL_HAZARD = "fall_hazard"
    HOUSEKEEPING = "housekeeping"
    SCAFFOLDING = "scaffolding"
    ELECTRICAL = "electrical"
    EXCAVATION = "excavation"
    NONE = "none"


class WorkActivity(Enum):
    """Detected work activities."""
    EXCAVATION = "excavation"
    FOUNDATION = "foundation"
    CONCRETE_POUR = "concrete_pour"
    STEEL_ERECTION = "steel_erection"
    FRAMING = "framing"
    ROOFING = "roofing"
    MEP_ROUGH = "mep_rough"
    DRYWALL = "drywall"
    FINISHES = "finishes"
    EXTERIOR = "exterior"
    UNKNOWN = "unknown"


@dataclass
class PhotoMetadata:
    """Photo metadata."""
    photo_id: str
    filename: str
    capture_date: datetime
    location: str
    level: str
    zone: str
    photo_type: PhotoType
    photographer: str = ""
    gps_coordinates: Optional[Tuple[float, float]] = None
    file_path: str = ""


@dataclass
class ProgressDetection:
    """Detected progress information."""
    work_activity: WorkActivity
    confidence: float
    description: str
    completion_estimate: float  # 0-100%
    elements_visible: List[str] = field(default_factory=list)


@dataclass
class SafetyDetection:
    """Detected safety information."""
    issue_type: SafetyIssue
    confidence: float
    description: str
    severity: str  # low, medium, high
    location_in_image: Optional[Tuple[int, int, int, int]] = None  # bounding box


@dataclass
class PhotoAnalysisResult:
    """Complete photo analysis result."""
    photo_id: str
    metadata: PhotoMetadata
    analysis_date: datetime
    status: AnalysisStatus
    progress_detections: List[ProgressDetection]
    safety_detections: List[SafetyDetection]
    weather_conditions: str
    worker_count: int
    equipment_visible: List[str]
    quality_issues: List[str]
    notes: str = ""
    bim_comparison: Optional[Dict[str, Any]] = None


class ProgressPhotoAnalyzer:
    """Analyze construction site photos."""

    def __init__(self, project_name: str):
        self.project_name = project_name
        self.photos: Dict[str, PhotoMetadata] = {}
        self.results: Dict[str, PhotoAnalysisResult] = {}
        self._photo_counter = 0

    def register_photo(self,
                      filename: str,
                      capture_date: datetime,
                      location: str,
                      level: str = "",
                      zone: str = "",
                      photo_type: PhotoType = PhotoType.PROGRESS,
                      photographer: str = "",
                      file_path: str = "") -> PhotoMetadata:
        """Register a photo for analysis."""
        self._photo_counter += 1
        photo_id = f"PH-{self._photo_counter:05d}"

        metadata = PhotoMetadata(
            photo_id=photo_id,
            filename=filename,
            capture_date=capture_date,
            location=location,
            level=level,
            zone=zone,
            photo_type=photo_type,
            photographer=photographer,
            file_path=file_path
        )

        self.photos[photo_id] = metadata
        return metadata

    def analyze_photo(self, photo_id: str,
                     image_data: bytes = None) -> PhotoAnalysisResult:
        """Analyze a registered photo."""
        if photo_id not in self.photos:
            raise ValueError(f"Photo {photo_id} not registered")

        metadata = self.photos[photo_id]

        # Perform analysis (simulated - would use CV/AI models)
        progress_detections = self._detect_progress(metadata, image_data)
        safety_detections = self._detect_safety(metadata, image_data)
        weather = self._detect_weather(metadata, image_data)
        worker_count = self._count_workers(image_data)
        equipment = self._detect_equipment(image_data)

        result = PhotoAnalysisResult(
            photo_id=photo_id,
            metadata=metadata,
            analysis_date=datetime.now(),
            status=AnalysisStatus.COMPLETED,
            progress_detections=progress_detections,
            safety_detections=safety_detections,
            weather_conditions=weather,
            worker_count=worker_count,
            equipment_visible=equipment,
            quality_issues=[]
        )

        self.results[photo_id] = result
        return result

    def _detect_progress(self, metadata: PhotoMetadata,
                        image_data: bytes = None) -> List[ProgressDetection]:
        """Detect work progress in photo."""
        # Simulated detection based on metadata
        detections = []

        # In real implementation, this would use computer vision
        location_lower = metadata.location.lower()

        if 'foundation' in location_lower or 'basement' in location_lower:
            detections.append(ProgressDetection(
                work_activity=WorkActivity.FOUNDATION,
                confidence=0.85,
                description="Foundation work visible",
                completion_estimate=60.0
            ))
        elif 'steel' in location_lower or 'structure' in location_lower:
            detections.append(ProgressDetection(
                work_activity=WorkActivity.STEEL_ERECTION,
                confidence=0.90,
                description="Structural steel installation",
                completion_estimate=45.0
            ))
        elif 'roof' in location_lower:
            detections.append(ProgressDetection(
                work_activity=WorkActivity.ROOFING,
                confidence=0.80,
                description="Roofing work in progress",
                completion_estimate=30.0
            ))
        else:
            detections.append(ProgressDetection(
                work_activity=WorkActivity.UNKNOWN,
                confidence=0.50,
                description="General construction activity",
                completion_estimate=0.0
            ))

        return detections

    def _detect_safety(self, metadata: PhotoMetadata,
                      image_data: bytes = None) -> List[SafetyDetection]:
        """Detect safety issues in photo."""
        # Simulated detection - real implementation would use AI models
        detections = []

        # In production, this would analyze the actual image
        if metadata.photo_type == PhotoType.SAFETY:
            # Return empty for demonstration
            pass

        return detections

    def _detect_weather(self, metadata: PhotoMetadata,
                       image_data: bytes = None) -> str:
        """Detect weather conditions from photo."""
        # Simulated - would use image analysis
        return "clear"

    def _count_workers(self, image_data: bytes = None) -> int:
        """Count workers visible in photo."""
        # Simulated - would use person detection
        return 0

    def _detect_equipment(self, image_data: bytes = None) -> List[str]:
        """Detect equipment visible in photo."""
        # Simulated - would use object detection
        return []

    def compare_to_bim(self, photo_id: str,
                      bim_render: bytes = None) -> Dict[str, Any]:
        """Compare photo to BIM model render."""
        if photo_id not in self.results:
            return {'error': 'Photo not analyzed'}

        # Simulated comparison
        comparison = {
            'similarity_score': 0.75,
            'alignment_quality': 'good',
            'discrepancies': [],
            'notes': 'Photo roughly matches BIM model'
        }

        self.results[photo_id].bim_comparison = comparison
        return comparison

    def get_progress_summary(self,
                            from_date: date = None,
                            to_date: date = None) -> Dict[str, Any]:
        """Generate progress summary from analyzed photos."""
        filtered_results = list(self.results.values())

        if from_date:
            filtered_results = [r for r in filtered_results
                              if r.metadata.capture_date.date() >= from_date]
        if to_date:
            filtered_results = [r for r in filtered_results
                              if r.metadata.capture_date.date() <= to_date]

        # Aggregate by activity
        by_activity = {}
        for result in filtered_results:
            for detection in result.progress_detections:
                activity = detection.work_activity.value
                if activity not in by_activity:
                    by_activity[activity] = {
                        'count': 0,
                        'avg_completion': 0,
                        'photos': []
                    }
                by_activity[activity]['count'] += 1
                by_activity[activity]['avg_completion'] += detection.completion_estimate
                by_activity[activity]['photos'].append(result.photo_id)

        # Calculate averages
        for activity in by_activity:
            count = by_activity[activity]['count']
            if count > 0:
                by_activity[activity]['avg_completion'] /= count

        # Safety summary
        total_safety_issues = sum(len(r.safety_detections) for r in filtered_results)

        return {
            'total_photos': len(filtered_results),
            'date_range': {
                'from': from_date.isoformat() if from_date else None,
                'to': to_date.isoformat() if to_date else None
            },
            'by_activity': by_activity,
            'safety_issues_detected': total_safety_issues,
            'average_worker_count': sum(r.worker_count for r in filtered_results) / len(filtered_results) if filtered_results else 0
        }

    def export_report(self, output_path: str):
        """Export analysis results to Excel."""
        with pd.ExcelWriter(output_path, engine='openpyxl') as writer:
            # Photos list
            photos_data = []
            for result in self.results.values():
                photos_data.append({
                    'Photo ID': result.photo_id,
                    'Filename': result.metadata.filename,
                    'Date': result.metadata.capture_date,
                    'Location': result.metadata.location,
                    'Level': result.metadata.level,
                    'Type': result.metadata.photo_type.value,
                    'Status': result.status.value,
                    'Worker Count': result.worker_count,
                    'Weather': result.weather_conditions
                })

            pd.DataFrame(photos_data).to_excel(writer, sheet_name='Photos', index=False)

            # Progress detections
            progress_data = []
            for result in self.results.values():
                for detection in result.progress_detections:
                    progress_data.append({
                        'Photo ID': result.photo_id,
                        'Activity': detection.work_activity.value,
                        'Confidence': detection.confidence,
                        'Completion %': detection.completion_estimate,
                        'Description': detection.description
                    })

            if progress_data:
                pd.DataFrame(progress_data).to_excel(writer, sheet_name='Progress', index=False)

            # Safety detections
            safety_data = []
            for result in self.results.values():
                for detection in result.safety_detections:
                    safety_data.append({
                        'Photo ID': result.photo_id,
                        'Issue': detection.issue_type.value,
                        'Severity': detection.severity,
                        'Confidence': detection.confidence,
                        'Description': detection.description
                    })

            if safety_data:
                pd.DataFrame(safety_data).to_excel(writer, sheet_name='Safety', index=False)

        return output_path


def analyze_site_photos(photo_files: List[str],
                       project_name: str,
                       output_path: str = None) -> Dict[str, Any]:
    """Quick function to analyze multiple photos."""
    analyzer = ProgressPhotoAnalyzer(project_name)

    for file_path in photo_files:
        path = Path(file_path)
        metadata = analyzer.register_photo(
            filename=path.name,
            capture_date=datetime.now(),
            location="Site",
            photo_type=PhotoType.PROGRESS,
            file_path=file_path
        )
        analyzer.analyze_photo(metadata.photo_id)

    summary = analyzer.get_progress_summary()

    if output_path:
        analyzer.export_report(output_path)

    return summary

快速入门

# Initialize analyzer
analyzer = ProgressPhotoAnalyzer("Office Tower Project")

# Register and analyze photos
metadata = analyzer.register_photo(
    filename="site_photo_001.jpg",
    capture_date=datetime.now(),
    location="Level 3 - Core",
    level="Level 3",
    zone="Zone A",
    photo_type=PhotoType.PROGRESS,
    photographer="John Smith"
)

result = analyzer.analyze_photo(metadata.photo_id)
print(f"Detected activity: {result.progress_detections[0].work_activity.value}")
print(f"Completion estimate: {result.progress_detections[0].completion_estimate}%")

常见用例

1. 每日进度报告
from datetime import date

summary = analyzer.get_progress_summary(
    from_date=date.today(),
    to_date=date.today()
)
print(f"Photos analyzed today: {summary['total_photos']}")
2. 安全监控
safety_photos = [r for r in analyzer.results.values() if r.safety_detections]
for result in safety_photos:
    for issue in result.safety_detections:
        print(f"Safety issue: {issue.issue_type.value} - {issue.severity}")
3. 导出分析结果
analyzer.export_report("photo_analysis_report.xlsx")

资源

  • DDC Book:第 4.1 章 - 现场数据采集
  • 参考资料:施工领域的计算机视觉

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