material-tracking-iot について
建設プロジェクト向けの IoT 資材追跡スキルです。センサーや接続デバイスを使い、調達から設置までの資材を追跡します。配送、在庫、保管環境、使用量、廃棄物を扱います。
主な機能
- 01GPS による配送追跡
- 02RFID による在庫管理
- 03温度と湿度の監視
- 04資材使用量の監視
- 05資材廃棄物の追跡
- 06センサーの MQTT メッセージ処理
活用シーン
- 01資材輸送位置の確認
- 02RFID 資材在庫の管理
- 03資材保管環境の監視
- 04資材使用量と廃棄物の追跡
インストール
コマンドをコピーしてターミナルで実行します。
$
npx skills add https:/ / github.com/ datadrivenconstruction/ ddc_skills_for_ai_agents_in_construction --skill material-tracking-iotインストール後、Claude Code で/material-tracking-iotを入力して読み込まれたか確認します。
同梱ファイルclaw.jsoninstructions.md
詳細
IoT による資材追跡
概要
このスキルは、建設プロジェクト向けに IoT ベースの資材追跡システムを実装します。センサー、RFID タグ、GPS、接続デバイスを使用して、調達から設置まで資材を追跡します。
追跡機能:
- 配送追跡(GPS)
- 在庫管理(RFID)
- 保管環境(温度・湿度センサー)
- 使用状況の監視(重量センサー、カウンター)
- 廃棄物の追跡
クイックスタート
from dataclasses import dataclass, field
from datetime import datetime
from typing import List, Dict, Optional
from enum import Enum
import json
class MaterialStatus(Enum):
ORDERED = "ordered"
IN_TRANSIT = "in_transit"
DELIVERED = "delivered"
IN_STORAGE = "in_storage"
IN_USE = "in_use"
INSTALLED = "installed"
WASTED = "wasted"
@dataclass
class MaterialItem:
material_id: str
name: str
quantity: float
unit: str
rfid_tag: Optional[str] = None
status: MaterialStatus = MaterialStatus.ORDERED
location: Optional[str] = None
last_updated: datetime = field(default_factory=datetime.now)
@dataclass
class SensorReading:
sensor_id: str
reading_type: str # temperature, humidity, weight, gps
value: float
unit: str
timestamp: datetime
location: Optional[str] = None
# Quick inventory check
def check_inventory(materials: List[MaterialItem]) -> Dict:
"""Quick inventory status check"""
inventory = {
'total_items': len(materials),
'by_status': {},
'by_location': {}
}
for m in materials:
status = m.status.value
inventory['by_status'][status] = inventory['by_status'].get(status, 0) + 1
if m.location:
inventory['by_location'][m.location] = inventory['by_location'].get(m.location, 0) + 1
return inventory
# Example
materials = [
MaterialItem("MAT-001", "Rebar 12mm", 500, "kg", "RFID-001", MaterialStatus.IN_STORAGE, "Yard-A"),
MaterialItem("MAT-002", "Concrete C30", 50, "m³", None, MaterialStatus.IN_TRANSIT),
MaterialItem("MAT-003", "Steel Beam HEB200", 20, "pcs", "RFID-002", MaterialStatus.DELIVERED, "Yard-B")
]
print(check_inventory(materials))
包括的な IoT 追跡システム
資材追跡エンジン
from dataclasses import dataclass, field
from datetime import datetime, timedelta
from typing import List, Dict, Optional, Tuple
from enum import Enum
import uuid
import json
class SensorType(Enum):
RFID = "rfid"
GPS = "gps"
TEMPERATURE = "temperature"
HUMIDITY = "humidity"
WEIGHT = "weight"
MOTION = "motion"
CAMERA = "camera"
@dataclass
class Sensor:
sensor_id: str
sensor_type: SensorType
location: str
is_active: bool = True
last_reading: Optional[datetime] = None
battery_level: float = 100.0
@dataclass
class MaterialMovement:
movement_id: str
material_id: str
from_location: Optional[str]
to_location: str
quantity: float
timestamp: datetime
recorded_by: str # sensor_id or user_id
movement_type: str # delivery, transfer, usage, waste
@dataclass
class StorageCondition:
location: str
timestamp: datetime
temperature: Optional[float] = None # Celsius
humidity: Optional[float] = None # Percentage
is_acceptable: bool = True
alerts: List[str] = field(default_factory=list)
class MaterialTrackingSystem:
"""IoT-based material tracking system"""
def __init__(self):
self.materials: Dict[str, MaterialItem] = {}
self.sensors: Dict[str, Sensor] = {}
self.movements: List[MaterialMovement] = []
self.readings: List[SensorReading] = []
self.storage_conditions: Dict[str, StorageCondition] = {}
self.alerts: List[Dict] = []
# Material requirements (for condition monitoring)
self.material_requirements = {
'cement': {'max_humidity': 60, 'max_temp': 35, 'min_temp': 5},
'steel': {'max_humidity': 70, 'max_temp': 50, 'min_temp': -20},
'wood': {'max_humidity': 65, 'max_temp': 40, 'min_temp': 0},
'paint': {'max_humidity': 80, 'max_temp': 30, 'min_temp': 5},
'adhesive': {'max_humidity': 70, 'max_temp': 25, 'min_temp': 10}
}
def register_material(self, name: str, quantity: float, unit: str,
rfid_tag: Optional[str] = None,
material_type: str = 'general') -> MaterialItem:
"""Register new material in the system"""
material_id = f"MAT-{uuid.uuid4().hex[:8].upper()}"
material = MaterialItem(
material_id=material_id,
name=name,
quantity=quantity,
unit=unit,
rfid_tag=rfid_tag,
status=MaterialStatus.ORDERED
)
self.materials[material_id] = material
return material
def register_sensor(self, sensor_type: SensorType, location: str) -> Sensor:
"""Register new sensor"""
sensor_id = f"SNS-{sensor_type.value.upper()}-{uuid.uuid4().hex[:6].upper()}"
sensor = Sensor(
sensor_id=sensor_id,
sensor_type=sensor_type,
location=location
)
self.sensors[sensor_id] = sensor
return sensor
def process_sensor_reading(self, sensor_id: str, value: float,
unit: str, metadata: Dict = None) -> SensorReading:
"""Process incoming sensor reading"""
sensor = self.sensors.get(sensor_id)
if not sensor:
raise ValueError(f"Unknown sensor: {sensor_id}")
reading = SensorReading(
sensor_id=sensor_id,
reading_type=sensor.sensor_type.value,
value=value,
unit=unit,
timestamp=datetime.now(),
location=sensor.location
)
self.readings.append(reading)
sensor.last_reading = reading.timestamp
# Process based on sensor type
if sensor.sensor_type == SensorType.RFID:
self._process_rfid_reading(reading, metadata)
elif sensor.sensor_type == SensorType.GPS:
self._process_gps_reading(reading, metadata)
elif sensor.sensor_type in [SensorType.TEMPERATURE, SensorType.HUMIDITY]:
self._process_environment_reading(reading)
elif sensor.sensor_type == SensorType.WEIGHT:
self._process_weight_reading(reading, metadata)
return reading
def _process_rfid_reading(self, reading: SensorReading, metadata: Dict):
"""Process RFID tag scan"""
rfid_tag = metadata.get('rfid_tag') if metadata else None
if not rfid_tag:
return
# Find material with this RFID
material = None
for m in self.materials.values():
if m.rfid_tag == rfid_tag:
material = m
break
if material:
old_location = material.location
new_location = reading.location
# Record movement
if old_location != new_location:
movement = MaterialMovement(
movement_id=f"MOV-{uuid.uuid4().hex[:8]}",
material_id=material.material_id,
from_location=old_location,
to_location=new_location,
quantity=material.quantity,
timestamp=reading.timestamp,
recorded_by=reading.sensor_id,
movement_type='transfer'
)
self.movements.append(movement)
material.location = new_location
material.last_updated = reading.timestamp
# Update status based on location
if 'yard' in new_location.lower() or 'storage' in new_location.lower():
material.status = MaterialStatus.IN_STORAGE
elif 'floor' in new_location.lower() or 'zone' in new_location.lower():
material.status = MaterialStatus.IN_USE
def _process_gps_reading(self, reading: SensorReading, metadata: Dict):
"""Process GPS location update"""
vehicle_id = metadata.get('vehicle_id') if metadata else None
material_ids = metadata.get('material_ids', []) if metadata else []
lat, lon = reading.value, metadata.get('longitude', 0) if metadata else 0
for material_id in material_ids:
material = self.materials.get(material_id)
if material:
material.location = f"GPS: {lat:.6f}, {lon:.6f}"
material.status = MaterialStatus.IN_TRANSIT
material.last_updated = reading.timestamp
def _process_environment_reading(self, reading: SensorReading):
"""Process temperature/humidity reading"""
location = reading.location
if location not in self.storage_conditions:
self.storage_conditions[location] = StorageCondition(
location=location,
timestamp=reading.timestamp
)
condition = self.storage_conditions[location]
condition.timestamp = reading.timestamp
if reading.reading_type == 'temperature':
condition.temperature = reading.value
elif reading.reading_type == 'humidity':
condition.humidity = reading.value
# Check conditions for materials in this location
self._check_storage_conditions(location)
def _check_storage_conditions(self, location: str):
"""Check if storage conditions are acceptable for materials"""
condition = self.storage_conditions.get(location)
if not condition:
return
condition.alerts = []
condition.is_acceptable = True
# Find materials in this location
materials_here = [m for m in self.materials.values() if m.location == location]
for material in materials_here:
# Determine material type from name (simplified)
material_type = None
for mtype in self.material_requirements.keys():
if mtype in material.name.lower():
material_type = mtype
break
if not material_type:
continue
reqs = self.material_requirements[material_type]
if condition.temperature is not None:
if condition.temperature > reqs.get('max_temp', 100):
alert = f"Temperature too high for {material.name}: {condition.temperature}°C > {reqs['max_temp']}°C"
condition.alerts.append(alert)
condition.is_acceptable = False
self._create_alert('temperature_high', location, material.material_id, alert)
if condition.temperature < reqs.get('min_temp', -100):
alert = f"Temperature too low for {material.name}: {condition.temperature}°C < {reqs['min_temp']}°C"
condition.alerts.append(alert)
condition.is_acceptable = False
self._create_alert('temperature_low', location, material.material_id, alert)
if condition.humidity is not None:
if condition.humidity > reqs.get('max_humidity', 100):
alert = f"Humidity too high for {material.name}: {condition.humidity}% > {reqs['max_humidity']}%"
condition.alerts.append(alert)
condition.is_acceptable = False
self._create_alert('humidity_high', location, material.material_id, alert)
def _process_weight_reading(self, reading: SensorReading, metadata: Dict):
"""Process weight sensor reading for usage tracking"""
material_id = metadata.get('material_id') if metadata else None
if not material_id:
return
material = self.materials.get(material_id)
if not material:
return
previous_weight = metadata.get('previous_weight', material.quantity)
current_weight = reading.value
if current_weight < previous_weight:
# Material was used
used_quantity = previous_weight - current_weight
movement = MaterialMovement(
movement_id=f"MOV-{uuid.uuid4().hex[:8]}",
material_id=material_id,
from_location=reading.location,
to_location="installed",
quantity=used_quantity,
timestamp=reading.timestamp,
recorded_by=reading.sensor_id,
movement_type='usage'
)
self.movements.append(movement)
material.quantity = current_weight
material.last_updated = reading.timestamp
# Check for low stock
if material.quantity < metadata.get('reorder_level', 0):
self._create_alert(
'low_stock',
reading.location,
material_id,
f"Low stock: {material.name} at {material.quantity} {material.unit}"
)
def _create_alert(self, alert_type: str, location: str,
material_id: str, message: str):
"""Create system alert"""
self.alerts.append({
'alert_id': f"ALT-{uuid.uuid4().hex[:8]}",
'type': alert_type,
'location': location,
'material_id': material_id,
'message': message,
'timestamp': datetime.now().isoformat(),
'acknowledged': False
})
def record_delivery(self, material_id: str, quantity: float,
location: str) -> MaterialMovement:
"""Record material delivery"""
material = self.materials.get(material_id)
if not material:
raise ValueError(f"Unknown material: {material_id}")
movement = MaterialMovement(
movement_id=f"MOV-{uuid.uuid4().hex[:8]}",
material_id=material_id,
from_location="supplier",
to_location=location,
quantity=quantity,
timestamp=datetime.now(),
recorded_by="manual_entry",
movement_type='delivery'
)
self.movements.append(movement)
material.quantity += quantity
material.location = location
material.status = MaterialStatus.DELIVERED
material.last_updated = datetime.now()
return movement
def get_material_history(self, material_id: str) -> List[Dict]:
"""Get movement history for a material"""
history = []
for movement in self.movements:
if movement.material_id == material_id:
history.append({
'movement_id': movement.movement_id,
'type': movement.movement_type,
'from': movement.from_location,
'to': movement.to_location,
'quantity': movement.quantity,
'timestamp': movement.timestamp.isoformat()
})
return sorted(history, key=lambda x: x['timestamp'])
def get_inventory_report(self) -> Dict:
"""Generate inventory report"""
report = {
'generated_at': datetime.now().isoformat(),
'total_materials': len(self.materials),
'by_status': {},
'by_location': {},
'alerts': [a for a in self.alerts if not a['acknowledged']],
'materials': []
}
for material in self.materials.values():
status = material.status.value
report['by_status'][status] = report['by_status'].get(status, 0) + 1
if material.location:
loc = material.location
if loc not in report['by_location']:
report['by_location'][loc] = []
report['by_location'][loc].append({
'id': material.material_id,
'name': material.name,
'quantity': material.quantity,
'unit': material.unit
})
report['materials'].append({
'id': material.material_id,
'name': material.name,
'quantity': material.quantity,
'unit': material.unit,
'status': status,
'location': material.location,
'rfid': material.rfid_tag,
'last_updated': material.last_updated.isoformat()
})
return report
GPS 車両追跡
from dataclasses import dataclass
from datetime import datetime, timedelta
from typing import List, Dict, Optional, Tuple
import math
@dataclass
class GPSPosition:
latitude: float
longitude: float
timestamp: datetime
speed: float = 0 # km/h
heading: float = 0 # degrees
@dataclass
class DeliveryVehicle:
vehicle_id: str
plate_number: str
driver: str
current_position: Optional[GPSPosition] = None
material_ids: List[str] = None
destination: Optional[Tuple[float, float]] = None
estimated_arrival: Optional[datetime] = None
class FleetTracker:
"""GPS-based fleet tracking for material deliveries"""
def __init__(self):
self.vehicles: Dict[str, DeliveryVehicle] = {}
self.position_history: Dict[str, List[GPSPosition]] = {}
self.geofences: Dict[str, Dict] = {}
def register_vehicle(self, plate_number: str, driver: str) -> DeliveryVehicle:
"""Register delivery vehicle"""
vehicle_id = f"VEH-{plate_number.replace(' ', '').upper()}"
vehicle = DeliveryVehicle(
vehicle_id=vehicle_id,
plate_number=plate_number,
driver=driver,
material_ids=[]
)
self.vehicles[vehicle_id] = vehicle
self.position_history[vehicle_id] = []
return vehicle
def update_position(self, vehicle_id: str, lat: float, lon: float,
speed: float = 0, heading: float = 0) -> GPSPosition:
"""Update vehicle position"""
vehicle = self.vehicles.get(vehicle_id)
if not vehicle:
raise ValueError(f"Unknown vehicle: {vehicle_id}")
position = GPSPosition(
latitude=lat,
longitude=lon,
timestamp=datetime.now(),
speed=speed,
heading=heading
)
vehicle.current_position = position
self.position_history[vehicle_id].append(position)
# Update ETA if destination set
if vehicle.destination:
vehicle.estimated_arrival = self._calculate_eta(vehicle)
# Check geofences
self._check_geofences(vehicle_id, position)
return position
def set_destination(self, vehicle_id: str, lat: float, lon: float):
"""Set delivery destination"""
vehicle = self.vehicles.get(vehicle_id)
if vehicle:
vehicle.destination = (lat, lon)
if vehicle.current_position:
vehicle.estimated_arrival = self._calculate_eta(vehicle)
def assign_materials(self, vehicle_id: str, material_ids: List[str]):
"""Assign materials to vehicle for delivery"""
vehicle = self.vehicles.get(vehicle_id)
if vehicle:
vehicle.material_ids = material_ids
def add_geofence(self, name: str, center_lat: float, center_lon: float,
radius_meters: float, fence_type: str = 'destination'):
"""Add geofence for location monitoring"""
self.geofences[name] = {
'center': (center_lat, center_lon),
'radius': radius_meters,
'type': fence_type,
'vehicles_inside': []
}
def _calculate_eta(self, vehicle: DeliveryVehicle) -> datetime:
"""Calculate estimated time of arrival"""
if not vehicle.current_position or not vehicle.destination:
return None
distance = self._haversine_distance(
vehicle.current_position.latitude,
vehicle.current_position.longitude,
vehicle.destination[0],
vehicle.destination[1]
)
# Use current speed or assume 40 km/h average
speed = vehicle.current_position.speed if vehicle.current_position.speed > 0 else 40
hours = distance / speed
return datetime.now() + timedelta(hours=hours)
def _haversine_distance(self, lat1: float, lon1: float,
lat2: float, lon2: float) -> float:
"""Calculate distance between two points in km"""
R = 6371 # Earth radius in km
lat1_rad = math.radians(lat1)
lat2_rad = math.radians(lat2)
delta_lat = math.radians(lat2 - lat1)
delta_lon = math.radians(lon2 - lon1)
a = (math.sin(delta_lat/2)**2 +
math.cos(lat1_rad) * math.cos(lat2_rad) * math.sin(delta_lon/2)**2)
c = 2 * math.atan2(math.sqrt(a), math.sqrt(1-a))
return R * c
def _check_geofences(self, vehicle_id: str, position: GPSPosition):
"""Check if vehicle entered/exited geofences"""
for fence_name, fence in self.geofences.items():
distance = self._haversine_distance(
position.latitude,
position.longitude,
fence['center'][0],
fence['center'][1]
) * 1000 # Convert to meters
is_inside = distance <= fence['radius']
was_inside = vehicle_id in fence['vehicles_inside']
if is_inside and not was_inside:
# Entered geofence
fence['vehicles_inside'].append(vehicle_id)
self._on_geofence_enter(vehicle_id, fence_name, fence['type'])
elif not is_inside and was_inside:
# Exited geofence
fence['vehicles_inside'].remove(vehicle_id)
self._on_geofence_exit(vehicle_id, fence_name, fence['type'])
def _on_geofence_enter(self, vehicle_id: str, fence_name: str, fence_type: str):
"""Handle geofence entry event"""
print(f"Vehicle {vehicle_id} entered {fence_name} ({fence_type})")
# Could trigger webhook, update status, send notification
def _on_geofence_exit(self, vehicle_id: str, fence_name: str, fence_type: str):
"""Handle geofence exit event"""
print(f"Vehicle {vehicle_id} exited {fence_name} ({fence_type})")
def get_fleet_status(self) -> Dict:
"""Get current fleet status"""
status = {
'timestamp': datetime.now().isoformat(),
'total_vehicles': len(self.vehicles),
'vehicles': []
}
for vehicle in self.vehicles.values():
v_status = {
'id': vehicle.vehicle_id,
'plate': vehicle.plate_number,
'driver': vehicle.driver,
'materials': vehicle.material_ids,
'position': None,
'eta': None
}
if vehicle.current_position:
v_status['position'] = {
'lat': vehicle.current_position.latitude,
'lon': vehicle.current_position.longitude,
'speed': vehicle.current_position.speed,
'updated': vehicle.current_position.timestamp.isoformat()
}
if vehicle.estimated_arrival:
v_status['eta'] = vehicle.estimated_arrival.isoformat()
status['vehicles'].append(v_status)
return status
センサー向け MQTT 統合
import json
from datetime import datetime
from typing import Callable, Dict
class IoTMessageHandler:
"""Handle MQTT messages from IoT sensors"""
def __init__(self, tracking_system: MaterialTrackingSystem):
self.tracking = tracking_system
self.topic_handlers: Dict[str, Callable] = {}
self._setup_handlers()
def _setup_handlers(self):
"""Setup topic handlers"""
self.topic_handlers = {
'sensors/rfid/+': self._handle_rfid,
'sensors/gps/+': self._handle_gps,
'sensors/temperature/+': self._handle_temperature,
'sensors/humidity/+': self._handle_humidity,
'sensors/weight/+': self._handle_weight
}
def process_message(self, topic: str, payload: bytes):
"""Process incoming MQTT message"""
try:
data = json.loads(payload.decode('utf-8'))
# Find matching handler
for pattern, handler in self.topic_handlers.items():
if self._topic_matches(topic, pattern):
handler(topic, data)
break
except json.JSONDecodeError:
print(f"Invalid JSON in message: {topic}")
except Exception as e:
print(f"Error processing message: {e}")
def _topic_matches(self, topic: str, pattern: str) -> bool:
"""Check if topic matches pattern (+ is wildcard)"""
topic_parts = topic.split('/')
pattern_parts = pattern.split('/')
if len(topic_parts) != len(pattern_parts):
return False
for t, p in zip(topic_parts, pattern_parts):
if p != '+' and t != p:
return False
return True
def _handle_rfid(self, topic: str, data: Dict):
"""Handle RFID scan message"""
sensor_id = topic.split('/')[-1]
self.tracking.process_sensor_reading(
sensor_id=sensor_id,
value=1, # Scan detected
unit='scan',
metadata={
'rfid_tag': data.get('tag_id'),
'signal_strength': data.get('rssi')
}
)
def _handle_gps(self, topic: str, data: Dict):
"""Handle GPS position message"""
sensor_id = topic.split('/')[-1]
self.tracking.process_sensor_reading(
sensor_id=sensor_id,
value=data.get('latitude', 0),
unit='degrees',
metadata={
'longitude': data.get('longitude'),
'speed': data.get('speed'),
'vehicle_id': data.get('vehicle_id'),
'material_ids': data.get('materials', [])
}
)
def _handle_temperature(self, topic: str, data: Dict):
"""Handle temperature sensor message"""
sensor_id = topic.split('/')[-1]
self.tracking.process_sensor_reading(
sensor_id=sensor_id,
value=data.get('value', 0),
unit='celsius',
metadata={}
)
def _handle_humidity(self, topic: str, data: Dict):
"""Handle humidity sensor message"""
sensor_id = topic.split('/')[-1]
self.tracking.process_sensor_reading(
sensor_id=sensor_id,
value=data.get('value', 0),
unit='percent',
metadata={}
)
def _handle_weight(self, topic: str, data: Dict):
"""Handle weight sensor message"""
sensor_id = topic.split('/')[-1]
self.tracking.process_sensor_reading(
sensor_id=sensor_id,
value=data.get('value', 0),
unit='kg',
metadata={
'material_id': data.get('material_id'),
'previous_weight': data.get('previous'),
'reorder_level': data.get('reorder_level')
}
)
# Example MQTT message formats
EXAMPLE_MESSAGES = {
'rfid_scan': {
'topic': 'sensors/rfid/SNS-RFID-001',
'payload': {
'tag_id': 'RFID-MAT-001',
'rssi': -45,
'timestamp': '2024-01-15T10:30:00Z'
}
},
'gps_update': {
'topic': 'sensors/gps/VEH-ABC123',
'payload': {
'latitude': 55.7558,
'longitude': 37.6173,
'speed': 45,
'heading': 90,
'vehicle_id': 'VEH-ABC123',
'materials': ['MAT-001', 'MAT-002']
}
},
'temperature': {
'topic': 'sensors/temperature/SNS-TEMP-001',
'payload': {
'value': 28.5,
'battery': 85
}
}
}
ダッシュボードデータ生成ツール
class MaterialDashboard:
"""Generate data for material tracking dashboard"""
def __init__(self, tracking: MaterialTrackingSystem,
fleet: FleetTracker):
self.tracking = tracking
self.fleet = fleet
def get_dashboard_data(self) -> Dict:
"""Get comprehensive dashboard data"""
inventory = self.tracking.get_inventory_report()
fleet_status = self.fleet.get_fleet_status()
# Calculate usage trends (last 7 days)
usage_movements = [
m for m in self.tracking.movements
if m.movement_type == 'usage' and
(datetime.now() - m.timestamp).days <= 7
]
daily_usage = {}
for m in usage_movements:
day = m.timestamp.strftime('%Y-%m-%d')
daily_usage[day] = daily_usage.get(day, 0) + m.quantity
return {
'summary': {
'total_materials': inventory['total_materials'],
'in_transit': inventory['by_status'].get('in_transit', 0),
'in_storage': inventory['by_status'].get('in_storage', 0),
'active_alerts': len(inventory['alerts']),
'active_deliveries': len([v for v in self.fleet.vehicles.values()
if v.material_ids])
},
'inventory': inventory,
'fleet': fleet_status,
'alerts': inventory['alerts'][:10], # Top 10
'usage_trend': daily_usage,
'storage_conditions': {
loc: {
'temperature': cond.temperature,
'humidity': cond.humidity,
'ok': cond.is_acceptable
}
for loc, cond in self.tracking.storage_conditions.items()
}
}
クイックリファレンス
| センサーの種類 | 用途 | データ形式 | 更新頻度 |
|---|---|---|---|
| RFID | 資材の識別 | タグ ID、信号強度 | スキャン時 |
| GPS | 配送追跡 | 緯度/経度、速度、進行方向 | 10~60 秒 |
| 温度 | 保管状況の監視 | 摂氏 | 5~15 分 |
| 湿度 | 保管状況の監視 | パーセンテージ | 5~15 分 |
| 重量 | 使用状況の追跡 | キログラム | 変化時 |
MQTT トピックの構成
sensors/
├── rfid/{sensor_id}
├── gps/{vehicle_id}
├── temperature/{sensor_id}
├── humidity/{sensor_id}
├── weight/{sensor_id}
└── motion/{sensor_id}
alerts/
├── low_stock/{material_id}
├── temperature/{location}
├── delivery/{vehicle_id}
└── geofence/{fence_name}
リソース
- MQTT プロトコル:https://mqtt.org
- IoT プラットフォーム:AWS IoT、Azure IoT Hub、ThingsBoard
- DDC ウェブサイト:https://datadrivenconstruction.io
次のステップ
- IoT イベントの自動化については、
n8n-workflow-automationを参照してください - 追跡ダッシュボードについては、
data-visualizationを参照してください - 資材数量の統合については、
qto-reportを参照してください
コメント
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