AI 与供应链自动化
AI 正从"辅助决策"走向"自主决策"——供应链是 AI 落地最成熟的领域之一。
AI 供应链应用全景
graph TD
AI[AI 供应链] --> PREDICT[智能预测]
AI --> AUTO[自动补货]
AI --> ROBOT[仓储机器人]
AI --> ROUTE[路线优化]
AI --> QUALITY[质量检测]
PREDICT --> DEMAND[需求预测]
PREDICT --> PRICE[价格预测]
AUTO --> RULE[规则引擎]
AUTO --> ML[ML 模型]
ROBOT --> AMR[AMR 机器人]
ROBOT --> ARM[机械臂]
style AI fill:#e3f2fd,stroke:#1565c0,stroke-width:2px
style PREDICT fill:#c8e6c9,stroke:#388e3c,stroke-width:2px
智能需求预测
"""
AI 需求预测(特征工程示例)
"""
from dataclasses import dataclass
@dataclass
class DemandFeatures:
"""需求预测特征"""
historical_sales: list[float] # 历史销量
price: float
promotion: bool
holiday: bool
weather_temp: float
competitor_price: float
day_of_week: int
class AIForecaster:
"""AI 预测器(简化演示)"""
@staticmethod
def feature_engineering(f: DemandFeatures) -> dict:
"""特征工程"""
recent = f.historical_sales[-7:]
features = {
"7日均值": sum(recent) / len(recent),
"7日趋势": recent[-1] - recent[0],
"价格": f.price,
"促销": 1 if f.promotion else 0,
"节假日": 1 if f.holiday else 0,
"气温": f.weather_temp,
"价格竞争力": f.competitor_price / f.price,
"星期": f.day_of_week,
}
return features
@staticmethod
def predict(features: dict) -> dict:
"""预测(规则模拟)"""
base = features["7日均值"]
adjustment = 1.0
if features["促销"]:
adjustment *= 1.35
if features["节假日"]:
adjustment *= 1.25
if features["价格竞争力"] > 1.1:
adjustment *= 1.10
if features["7日趋势"] > 0:
adjustment *= 1.05
predicted = base * adjustment
return {
"预测销量": round(predicted),
"基准销量": round(base),
"调整系数": f"{adjustment:.2f}",
"置信区间": f"[{round(predicted*0.85)}, {round(predicted*1.15)}]",
}
# 演示
features = DemandFeatures(
historical_sales=[120, 135, 128, 142, 155, 148, 160],
price=99,
promotion=True,
holiday=False,
weather_temp=22,
competitor_price=109,
day_of_week=5,
)
forecaster = AIForecaster()
feat = forecaster.feature_engineering(features)
print("=== 特征工程 ===")
for k, v in feat.items():
print(f" {k}: {v}")
pred = forecaster.predict(feat)
print("\n=== 预测结果 ===")
for k, v in pred.items():
print(f" {k}: {v}")
自动补货系统
"""
自动补货引擎
"""
from dataclasses import dataclass
@dataclass
class AutoReplenishment:
"""自动补货"""
@staticmethod
def calculate(
current_stock: int,
daily_demand: float,
lead_time: int,
safety_days: int,
min_order: int,
) -> dict:
"""计算是否需要补货"""
safety_stock = daily_demand * safety_days
reorder_point = daily_demand * lead_time + safety_stock
days_of_stock = current_stock / daily_demand if daily_demand else 999
need_reorder = current_stock <= reorder_point
if need_reorder:
# 补到 (lead_time + safety_days + review_period) 天的量
target = daily_demand * (lead_time + safety_days + 7)
order_qty = max(target - current_stock, min_order)
else:
order_qty = 0
return {
"当前库存": current_stock,
"日均需求": round(daily_demand),
"可售天数": round(days_of_stock, 1),
"补货点": round(reorder_point),
"需要补货": "是" if need_reorder else "否",
"建议订量": round(order_qty),
}
# 演示
items = [
{"sku": "A001", "stock": 150, "demand": 30, "lt": 7, "safety": 3, "moq": 100},
{"sku": "A002", "stock": 500, "demand": 20, "lt": 14, "safety": 5, "moq": 200},
{"sku": "A003", "stock": 50, "demand": 15, "lt": 10, "safety": 3, "moq": 50},
]
engine = AutoReplenishment()
print("=== 自动补货检查 ===")
for item in items:
result = engine.calculate(
item["stock"], item["demand"], item["lt"],
item["safety"], item["moq"]
)
status = "🔴" if result["需要补货"] == "是" else "🟢"
print(f"\n {status} {item['sku']}:")
for k, v in result.items():
print(f" {k}: {v}")
AI 供应链技术成熟度
| 技术 | 成熟度 | 投资回报 | 落地难度 |
|---|---|---|---|
| 需求预测 | 成熟 | 高 | 低 |
| 自动补货 | 成熟 | 高 | 低 |
| 路线优化 | 成熟 | 高 | 中 |
| 仓储 AMR | 成长期 | 中 | 中 |
| 视觉质检 | 成长期 | 中 | 中 |
| 自动驾驶物流 | 早期 | 待验证 | 高 |
| 数字孪生 | 成长期 | 中 | 高 |
行动清单
- [ ] 选取 3 个高波动 SKU,用特征工程方式(加入促销/节假日/竞品价格)测试 AI 预测准确率提升
- [ ] 为自动补货系统设定参数(日均需求、前置期、安全天数、最小订货量),并跑一周试验
- [ ] 设置补货异常告警:自动补货触发量超过平时 3 倍时,转人工审核再确认
- [ ] 评估仓储机器人投资 ROI(见第 2 节详细计算),识别回收期 ≤ 3 年的优先场景
- [ ] 调研 AI 供应链 SaaS 工具(如 Lokad、Relex、o9),对比自建模型的成本
- [ ] 建立 AI 预测 vs 人工预测的双轨对比机制,用 MAPE 数据说话
下一节:02-仓储机器人与自动化 — 仓储自动化技术选型与 ROI 计算。