Most restaurant staffing models are still built for a dine-in world. Teams are planned using fixed ratios like “X staff per Y orders per day” or based on intuition formed over years of offline operations.
In online food ordering, this approach breaks quickly.
What matters is not how many orders you do in a day—but how fast orders arrive during peak hours. Staffing needs to be aligned to order velocity, not daily volume.
Why Headcount Ratios Fail Online
Consider two restaurants, both doing 200 orders per day.
- Restaurant A: Evenly spread demand
- Restaurant B: 55% of orders in a 3-hour dinner window
On paper, they look identical. Operationally, Restaurant B is far more stressed.
If both kitchens staff for daily averages, Restaurant B will:
- Be overstaffed for 15 hours
- Understaffed for the 3 hours that actually matter
This leads to a familiar pattern:
- Idle labour during slow hours
- Chaos, delays, and burnout during peaks
Industry data shows this mismatch causes 8–12% labour cost inefficiency, even while peak-hour service still suffers.
Order Velocity Is the Real Constraint
Order velocity measures orders per hour, not orders per day.
For online kitchens, critical thresholds often look like this:
- Comfortable capacity: 35–40 orders/hour
- Stress zone: 45–55 orders/hour
- Breakdown zone: 60+ orders/hour
Once demand crosses capacity:
- Prep times increase non-linearly
- Stations queue up
- Recovery within the same peak window becomes difficult
Staffing to absorb these spikes requires planning for peak velocity, not average demand.
Where Kitchens Actually Bottleneck
Analytics consistently shows that kitchens don’t fail evenly—they fail at specific stations.
Common bottlenecks include:
- Grilling or frying stations during combo-heavy peaks
- Plating and packing during high multi-item orders
- QC and handoff during delivery partner clustering
Adding “one more person” randomly doesn’t fix this.
Staffing needs to be station-aware, not just headcount-based.
What Velocity-Based Staffing Looks Like
Velocity-based staffing plans around:
- Expected orders per hour by time slot
- Item mix and prep complexity
- Station-level throughput limits
Restaurants that shift to this model typically:
- Stagger shifts around peak windows
- Add targeted support at bottleneck stations
- Reduce staffing during predictably low-demand hours
Observed outcomes include:
- 10–15% improvement in peak-hour throughput
- 2–3 minute reduction in prep time
- Lower staff fatigue and attrition
- More predictable fulfilment during high-pressure periods
Importantly, total staff count often stays the same—the deployment changes.
Why This Matters More as You Scale
At low volumes, kitchens can absorb inefficiency. At scale, inefficiency compounds.
A short-staffed peak hour at 60 orders per day is survivable. At 250+ orders per day, it leads to:
- Delays
- Refunds
- Rating drops
- Lost repeat customers
As order volumes grow, velocity misalignment becomes the primary limiter of growth, not demand.