Claude Skills For Restaurant Pos System (2026)
Building a restaurant point-of-sale system requires handling orders, inventory, payments, and reporting. Claude Code skills streamline this development by automating document generation, testing, data management, and reporting workflows. This guide covers practical applications for developers building restaurant POS solutions. For a broader look at how skills handle domain-specific automation, see the use cases hub.
Order Management with Spreadsheet Automation
Restaurant POS systems generate substantial operational data: daily sales, inventory counts, employee shifts, and customer orders. The xlsx skill enables rapid data analysis and report generation without manual spreadsheet manipulation.
Generate daily sales report from order data
import pandas as pd
from openpyxl import Workbook
def generate_daily_report(orders: list[dict], output_path: str):
wb = Workbook()
ws = wb.active
ws.title = "Daily Sales"
# Headers
ws.append(["Order ID", "Time", "Items", "Total", "Payment Method"])
for order in orders:
ws.append([
order["id"],
order["timestamp"],
", ".join(order["items"]),
order["total"],
order["payment"]
])
wb.save(output_path)
Use the xlsx skill to automate recurring reports:
/xlsx create weekly-inventory.xlsx: Sheet1=inventory_data, Sheet2=reorder_suggestions, formulas for stock_alert column
/xlsx analyze sales-data.csv: calculate daily revenue, top 10 items, peak hours, group by payment method
Invoice and Receipt Generation with PDF Skills
Every transaction in a restaurant POS requires documentation. The pdf skill handles invoice generation, receipt formatting, and batch processing of daily transactions.
Generate receipt PDF for restaurant orders
from reportlab.lib.pagesizes import letter
from reportlab.pdfgen import canvas
def generate_receipt(order: dict, filename: str):
c = canvas.Canvas(filename, pagesize=letter)
y = 750
c.setFont("Helvetica-Bold", 16)
c.drawString(50, y, "Restaurant Receipt")
y -= 30
c.setFont("Helvetica", 10)
c.drawString(50, y, f"Order #: {order['order_id']}")
y -= 15
c.drawString(50, y, f"Date: {order['timestamp']}")
y -= 30
for item in order["items"]:
c.drawString(50, y, f"{item['name']} x{item['qty']}")
c.drawRightString(550, y, f"${item['price'] * item['qty']:.2f}")
y -= 15
y -= 10
c.line(50, y, 550, y)
y -= 20
c.setFont("Helvetica-Bold", 12)
c.drawRightString(550, y, f"Total: ${order['total']:.2f}")
c.save()
Practical PDF commands for POS development:
/pdf merge all receipts in ./day-2026-03-14/*.pdf into daily-report.pdf
/pdf extract transaction totals from ./invoices/march-2026.pdf: create summary table
/pdf create receipt.pdf: Order #1234, Table 5, 2x Burger, 1x Fries, Total $24.50
Testing POS Workflows with TDD and Web Testing
Restaurant POS systems involve complex state management: order creation, payment processing, inventory deduction, and kitchen ticket routing. The tdd skill and webapp-testing skill ensure reliable POS behavior.
Test order state transitions
import pytest
from pos.order import Order
from pos.payment import PaymentProcessor
class TestOrderWorkflow:
def test_order_creation(self):
order = Order(table_id=5)
assert order.status == "open"
assert order.items == []
def test_add_items_updates_total(self):
order = Order(table_id=5)
order.add_item({"name": "Burger", "price": 12.00, "qty": 2})
assert order.total == 24.00
def test_payment_completes_order(self):
order = Order(table_id=5)
order.add_item({"name": "Salad", "price": 8.00, "qty": 1})
processor = PaymentProcessor()
result = processor.process_payment(order, method="card")
assert result["status"] == "completed"
assert order.status == "paid"
Test POS workflows with Claude:
/tdd write pytest tests for Order class: test_add_item, test_remove_item, test_apply_discount, test_checkout
/tdd given this failing test, implement the PaymentProcessor.process_cash() method: [paste test]
/webapp-testing verify POS frontend: add item to order, apply 10% discount, process payment, verify receipt shows correct total
Menu Management and Data Pipelines
Restaurant POS systems require dynamic menu management: items, prices, modifiers, availability, and category organization. Combine spreadsheet automation with code generation for structured menu data handling.
Menu item with modifiers
MENU_ITEM_SCHEMA = {
"id": "burger-classic",
"name": "Classic Burger",
"price": 12.99,
"category": "mains",
"modifiers": {
"cooking_temp": ["rare", "medium-rare", "medium", "medium-well", "well-done"],
"extras": [
{"name": "Add Cheese", "price": 1.50},
{"name": "Add Bacon", "price": 2.00},
{"name": "Add Avocado", "price": 2.50}
],
"sides": ["fries", "salad", "onion rings"]
},
"available": True,
"preparation_time_minutes": 15
}
Use Claude skills for menu operations:
/xlsx import menu-data.csv into menu.json: transform prices to cents, validate modifier arrays, output structured JSON
/xlsx create menu-pricing.xlsx: Sheet1=items, Sheet2=modifiers, Sheet3=categories, VLOOKUP for price calculations
Inventory Tracking Integration
Restaurant POS systems connect closely with inventory management. Track ingredient usage, trigger reorder alerts, and calculate food costs using data automation skills.
/xlsx analyze inventory.csv: calculate usage per menu item, identify low-stock ingredients, suggest reorder quantities
/xlsx create food-cost-report.xlsx: link to sales data, calculate actual food cost percentage per day, highlight variance over 5%
Shift and Labor Reporting
Beyond orders and inventory, restaurant POS systems must handle labor data: clock-in and clock-out times, shift assignments, overtime calculations, and tip distributions. This is an area where the xlsx skill provides immediate value because restaurant managers typically want labor data in spreadsheet form alongside sales data for cost-of-labor analysis.
Compute shift duration and flag overtime
from datetime import datetime, timedelta
def calculate_shift_metrics(shifts: list[dict]) -> list[dict]:
results = []
for shift in shifts:
clock_in = datetime.fromisoformat(shift["clock_in"])
clock_out = datetime.fromisoformat(shift["clock_out"])
duration_hours = (clock_out - clock_in).seconds / 3600
results.append({
"employee_id": shift["employee_id"],
"name": shift["name"],
"date": clock_in.date().isoformat(),
"hours_worked": round(duration_hours, 2),
"overtime": round(max(0, duration_hours - 8), 2),
"role": shift["role"]
})
return results
Use the xlsx skill to generate the weekly labor summary managers review every Monday:
/xlsx create labor-report.xlsx: Sheet1=daily_shifts, Sheet2=weekly_totals, Sheet3=overtime_summary, conditional formatting for rows where overtime > 0
/xlsx analyze shifts-march.csv: group by employee, calculate total hours, flag employees over 40 hours this week, calculate labor cost using hourly rates from staff.csv
Exporting labor reports as PDFs for payroll records is a natural extension of this workflow, use the pdf skill to merge weekly labor sheets into a single monthly payroll reference document.
Kitchen Display System Integration and Ticket Routing
A functional POS system in a full-service restaurant needs to route orders to the correct kitchen station: cold prep, grill, fryer, and expediter. Building and testing this routing logic is where the tdd skill earns its place in the workflow.
Order routing logic with TDD
class KitchenRouter:
STATION_MAP = {
"burger": "grill",
"steak": "grill",
"salad": "cold-prep",
"fries": "fryer",
"onion-rings": "fryer",
"dessert": "cold-prep"
}
def route_order_items(self, order: dict) -> dict:
tickets = {}
for item in order["items"]:
station = self.STATION_MAP.get(item["category"], "expediter")
if station not in tickets:
tickets[station] = {"station": station, "items": [], "order_id": order["id"]}
tickets[station]["items"].append(item)
return tickets
Tests generated with /tdd
class TestKitchenRouter:
def test_burger_routes_to_grill(self):
router = KitchenRouter()
order = {"id": "100", "items": [{"name": "Burger", "category": "burger", "qty": 1}]}
tickets = router.route_order_items(order)
assert "grill" in tickets
assert tickets["grill"]["items"][0]["name"] == "Burger"
def test_mixed_order_splits_across_stations(self):
router = KitchenRouter()
order = {
"id": "101",
"items": [
{"name": "Salad", "category": "salad", "qty": 1},
{"name": "Fries", "category": "fries", "qty": 2}
]
}
tickets = router.route_order_items(order)
assert "cold-prep" in tickets
assert "fryer" in tickets
def test_unknown_category_routes_to_expediter(self):
router = KitchenRouter()
order = {"id": "102", "items": [{"name": "Special", "category": "daily-special", "qty": 1}]}
tickets = router.route_order_items(order)
assert "expediter" in tickets
Generate this test suite with Claude:
/tdd write pytest tests for KitchenRouter: test routing for each station, test mixed orders split correctly, test unknown categories default to expediter, test order_id preserved in all tickets
End-of-Day Closing Reports
Every restaurant closes out the day by reconciling cash drawers, reviewing voids and refunds, and summarizing sales by category. This report goes to the owner or GM and often needs to be both a digital record and a printed document. The combination of xlsx for data and pdf for the final deliverable handles this pattern well.
Build end-of-day summary structure
def build_eod_summary(orders: list[dict], payments: list[dict]) -> dict:
total_sales = sum(o["total"] for o in orders if o["status"] == "paid")
total_voids = sum(o["total"] for o in orders if o["status"] == "voided")
cash_total = sum(p["amount"] for p in payments if p["method"] == "cash")
card_total = sum(p["amount"] for p in payments if p["method"] == "card")
category_sales = {}
for order in orders:
if order["status"] != "paid":
continue
for item in order["items"]:
cat = item.get("category", "uncategorized")
category_sales[cat] = category_sales.get(cat, 0) + item["price"] * item["qty"]
return {
"date": orders[0]["date"] if orders else None,
"total_orders": len([o for o in orders if o["status"] == "paid"]),
"total_sales": round(total_sales, 2),
"total_voids": round(total_voids, 2),
"cash": round(cash_total, 2),
"card": round(card_total, 2),
"category_breakdown": category_sales
}
Skill commands for generating the closing report package:
/xlsx create eod-2026-03-20.xlsx: Sheet1=order_summary, Sheet2=payment_breakdown, Sheet3=category_sales, Sheet4=voids_refunds, bold totals row, freeze header row on all sheets
/pdf create eod-report-2026-03-20.pdf: include restaurant name header, daily totals table, category breakdown chart, payment method split, footer with manager signature line
/pdf merge eod-report-2026-03-20.pdf with eod-2026-03-20.xlsx export: combine into single closing-package-2026-03-20.pdf for records
Why These Skills Matter for POS Development
Restaurant POS development involves multiple data types: orders, payments, menus, inventory, labor, and reports. Claude skills handle the document and data automation that would otherwise consume significant development time.
The spreadsheet skill transforms raw transaction data into actionable insights for managers who live in Excel. The PDF skill generates the receipts, invoices, and closing reports every restaurant operation requires. Testing skills ensure the complex state transitions in order processing and kitchen routing work correctly before a single table is served.
Start with these skills when building restaurant POS solutions. They handle the operational complexity so you can focus on core POS functionality.
Related Reading
- Claude /xlsx Skill: Spreadsheet Automation Guide. full reference for the xlsx skill
- Claude TDD Skill: Test-Driven Development Guide. test-first workflow for complex state machines
- Claude Code Batch Processing with Skills Guide. batch document generation and processing
- Claude Skills for Financial Modeling: Excel Alternative. financial data automation with Claude skills
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