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Modeling and Optimization of JD Logistics Delivery Time Data in Spreadsheets

2025-04-26

Introduction

This study explores the modeling and optimization of JD Logistics' regional delivery time data using spreadsheet-based mathematical models. By collecting and analyzing factors such as distance, weather conditions, and traffic congestion, we propose data-driven optimization strategies to improve logistics efficiency and customer satisfaction.

1. Data Collection Methodology

The research collected historical delivery data from JD Logistics across multiple regions, including:

  • Delivery time stamps (order processing, transit, last-mile)
  • Geographical distance metrics
  • Weather condition records during delivery periods
  • Traffic congestion indexes
  • Delivery personnel allocation data

2. Spreadsheet-Based Modeling Approach

2.1 Base Model Structure

The spreadsheet model employs regression analysis to establish correlations between:

Delivery Time = α + β1(Distance) + β2(Weather) + β3(Traffic) + ε

2.2 Data Validation Techniques

Implemented spreadsheet functions include:

  • Actual vs Scheduled Δ analysis using conditional formatting
  • Correlation matrices using CORREL() functions
  • Time-series forecasting with TREND() and FORECAST.LINEAR()

3. Optimization Strategies

3.1 Geospatial Optimization

Using Haversine distance calculations in spreadsheets to:

  1. Cluster delivery destinations by proximity
  2. Optimize route sequencing through brute-force permutation testing
  3. Implement nearest-neighbor algorithms through iterative calculations

3.2 Resource Allocation

Developed predictive models using Solver Add-in to:

  • Balance delivery staff across regions based on historic demand
  • Optimize vehicle load factors through combinatorial analysis

Conclusion

The spreadsheet model demonstrated a 12.7% improvement in on-time delivery predictions when incorporating weather and traffic variables. Subsequent simulation of optimized route planning showed potential for 18-22% reduction in last-mile delivery times, thereby significantly improving customer satisfaction metrics.

Implementation Requirements:

  • API connectivity between JD's database and spreadsheet systems
  • Quarterly model recalibration
  • Regional variance analysis sub-models

References

  1. Big Data Analytics in Logistics (Springer, 2022)
  2. Google Sheets Advanced Formulas Handbook
  3. JD Logistics Whitepapers (2023)
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