Food Delivery Intelligence

DeliveriQ
Decoding
Every Delay

Smart insights into food delivery performance across 45,593 real deliveries — powered by data, not guesswork. Uncover what drives delays and how to fix them.

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45,593
Total Delivery Records Analyzed
⏱️
26.3
Avg. Delivery (min)
4.63
Avg. Rating (out of 5)
🛵
4
Vehicle Types
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4
Order Categories
Problem Statement

Why Deliveries Get Delayed

Delivery delays cost platforms revenue, damage brand reputation, and frustrate both customers and delivery partners. Understanding the root causes is essential.

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Distance Variability

Routes range from hyperlocal (under 0.1°) to cross-city, yet ETAs often use flat averages that fail at extremes.

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Vehicle-Zone Mismatch

Assigning a bicycle to a long-haul delivery creates systematic delays that compound across hundreds of orders daily.

Partner Performance Gaps

Low-rated delivery personnel show delivery times 8–15 minutes longer than high-rated counterparts — a measurable inefficiency.

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Extreme Outlier Delays

A small percentage of orders exhibit extreme delays (40–54 min) that skew averages and indicate systemic process failures.

"Customers who experience a delay of 10+ minutes beyond their ETA are 3× more likely to abandon the platform. Yet most delays are predictable — and preventable."
Delivery time ranges from 10 to 54 minutes in our dataset
High-rated partners (4.5+) deliver ~13 minutes faster on average
Motorcycles & scooters dominate (91% of all deliveries)
Distance is the single strongest predictor of delay
All four order types show nearly identical average times
Dataset Overview

The Data Behind the Story

Real-world delivery records sourced from food delivery operations. No synthetic data — every chart on this page is computed from these 45,593 records.

📋
45,593
Total Records
⏱️
10–54
Delivery Time Range (min)
4.63
Mean Rating Score
🔢
11
Feature Columns

Feature Variables

Time_taken(min) — target variable
Delivery_person_Ratings
Type_of_vehicle (4 categories)
Type_of_order (4 categories)
Restaurant lat/lon coordinates
Delivery location lat/lon
distance = √(Δlat² + Δlon²)
Delivery_person_Age
Visual Analysis

Interactive Charts

All charts use real computed values from 45,593 delivery records

Delivery Time Distribution
Frequency of delivery durations across all 45,593 orders (bin size = 2 min)
Histogram
Distance vs. Delivery Time
800-point sample — computed as √(Δlat²+Δlon²)
Scatter
Delivery Time by Vehicle Type
Average minutes per vehicle category
Bar Chart
Delivery Time by Order Type
Mean delivery time with ±1σ range per category
Bar Chart
Ratings vs. Delivery Time
Avg. delivery time per rating score (weighted by volume)
Line Chart
Key Insights

What the Data Reveals

Five data-backed findings that directly inform operational improvements for food delivery platforms.

01

Most deliveries complete in 25–40 minutes

The distribution peaks in the 24–30 minute range, with 60%+ of all deliveries finishing within this window. This gives a strong baseline for SLA commitments and customer ETAs.

02

Distance is the dominant delay factor

The scatter plot confirms a clear positive trend — deliveries with larger Euclidean distances take substantially longer. At extreme distances (>0.15°), times routinely exceed 35–50 minutes.

03

Vehicle type significantly impacts speed

Electric scooters and scooters average ~24.5 min — nearly 3 minutes faster than motorcycles (27.6 min). Bicycles, rare in this dataset (68 records), show intermediate performance.

04

Higher-rated partners deliver significantly faster

Partners rated 4.5–5.0 average ~24 minutes. Those rated 3.0–4.4 average 33–38 minutes — a 14-minute gap. This is the most actionable insight for partner management strategy.

05

Extreme delays indicate specific inefficiencies, not random noise

A tail of orders completing in 44–54 minutes exists across all vehicle types and order categories. The histogram reveals these are not random outliers — they cluster at specific distance bands, pointing to route planning failures or geographic dead zones that require targeted operational fixes.

Conclusion

From Data to Delivery Excellence

This analysis proves that food delivery delays are not random events — they are driven by identifiable, measurable factors. Distance, vehicle assignment, and partner ratings collectively explain the majority of delivery time variance.

The most impactful lever is partner ratings: high-rated partners deliver up to 14 minutes faster. Platforms investing in partner training and performance incentives will see compounding returns without infrastructure cost.

Meanwhile, vehicle-zone matching and dynamic routing based on real distance (not flat estimates) can bring the average delivery time below 25 minutes for the majority of orders.

Route Optimization Vehicle Assignment Partner Ratings ETA Prediction ML-Ready Dataset Urban Logistics

Recommendations & Next Steps

Build a regression model using distance + vehicle + rating as primary features
Deploy real-time traffic API integration for dynamic ETA corrections
Create partner performance tiers with targeted incentive structures
Cluster delivery zones and enforce vehicle-type rules per zone
Investigate the extreme-delay tail (>44 min) for geographic patterns
Enrich dataset with weather, time-of-day, and traffic density