Client Background

Client: A leading hardware firm in the USA

Industry Type: IT

Products & Services: IT Consulting, Support, Hardware Installations

Organization Size: 300+

The Problem

The client specializes in installing blinds and related products in customers’ homes. They are currently struggling with scheduling appointments efficiently due to a variety of factors such as location, installation duration, team member availability, and customer preferences. We need a tool that can suggest optimal schedules based on these criteria and adapt to changes as customers approve or reject proposed appointment times. The goal is to create a proof of concept for a route and job planning model that can potentially streamline our scheduling process and make a significant impact on our business operations.

Our Solution

The To address this challenge, we propose developing a proof of concept for a route and job planning model. This model will be based on the concept of Constrained Vehicle Routing Problem with Time Windows (CVRP-TW), a well-established approach in operations research and logistics. The model will take a dataset, which could be extracted from a Google sheet or converted from a CSV file, and generate optimal schedules.

The development process will involve several stages:

  1. Understanding the data: We’ll analyze the data to identify the relevant variables and constraints. These may include the locations of installations, the duration of installations, the availability of team members, and customer preferences.
  2. Defining the objective and constraints: The objective will be to minimize the total travel time or maximize the number of installations completed within a given time frame. The constraints will include the geographical distances between locations, the working hours of team members, and the specific requirements of each installation.
  3. Implementing the algorithm: We’ll use an optimization algorithm, such as the Traveling Salesman Problem (TSP) solver, to find the optimal routes. The algorithm will consider all possible routes and choose the one that best meets the objectives while adhering to the constraints.
  4. Running simulations: To ensure the feasibility of the model, we’ll run simulations using different scenarios and adjust the parameters as needed.
  5. Saving the output: The final output will be the suggested schedules, which can then be reviewed and approved by the relevant parties.


In terms of technology, we’ll use Python, a popular language for data analysis and machine learning. We’ll also use the Anaconda distribution, which provides a powerful environment for scientific computing and data analysis.

Solution Architecture

Deliverables

  • A Python script implementing the CVRP-TW model.
  • Test data and scripts for simulating different scenarios.
  • Documentation explaining how to use the model and interpret the results.

Tech Stack

  • Tools used
  • Python: The primary programming language.
  • Anaconda: The Python distribution used for data analysis and machine learning.
  • Visual Studio Code: The code editor used during development.
  • Google App Script for deployment integrated with Google Sheets
  • Language/techniques used
  • Python
  • Models used
  • Constrained Vehicle Routing Problem with Time Windows (CVRP-TW)
  • Skills used
  • Data Analysis
  • Machine Learning
  • Optimization Algorithms
  • Python Programming
  • Databases used
  • CSV, Google Sheets: The data will initially be stored in a CSV file, which can be easily imported into Python using libraries like pandas.

What are the technical Challenges Faced during Project Execution

  1. One of the main challenges we anticipated is dealing with the complexity and variability of the data. The locations of installations, the duration of installations, the availability of team members, and customer preferences all need to be taken into account, and these factors can vary widely. Additionally, the model needs to be flexible enough to adapt to changes in the criteria as customers approve or reject appointment times.

How the Technical Challenges were Solved

  1. To overcome these challenges, we used advanced data analysis techniques to extract meaningful insights from the data. We’ll also develop a flexible model that can handle changes in the criteria. Furthermore, we’ll thoroughly test the model under different scenarios to ensure its robustness and reliability.

Business Impact

Implementing an efficient route and job planning model had a significant positive impact on our business operations. By automating the scheduling process, we were able to reduce manual errors and streamline our workflow, resulting in quicker response times and deliveries. This not only improved our operational efficiency but also enhanced our ability to provide better service to our customers.

Moreover, the model allowed us to maximize each driver’s productivity by optimizing routes, which led to cost savings in fuel and vehicle maintenance. The automated nature of the system also enabled us to make real-time adjustments to the route in response to last-minute orders or unexpected situations, such as a driver being unavailable.

The model also provided us with valuable insights into our operations, allowing us to identify bottlenecks and areas for improvement. This helped us to proactively address potential issues and continuously enhance our processes, thereby increasing our overall business performance.

As a result of these improvements, we were able to attract more skilled workers by focusing on cutting down unskilled labor. This shift towards more automation allowed us to invest more in our workforce, leading to higher employee satisfaction and retention rates.

Lastly, the successful implementation of the route and job planning model has opened up new opportunities for our business. With the ability to efficiently cover our market and manage our resources effectively, we have been able to consider expanding our territory by entering new markets. This strategic route planning has helped us determine whether we need to acquire more vehicles or hire more operators before moving, providing a clear pathway for future growth.

Project Snapshots




Project website url

https://docs.google.com/spreadsheets/d/1kS7Em9NitvMD_49MoLCpt_KoPJGGIAGjCES_KI8rEQk/edit?userstoinvite=raymondchow%40stanbondsa.com.au#gid=766964619

Summarize

Summarized: https://blackcoffer.com/

This project was done by the Blackcoffer Team, a Global IT Consulting firm.

Contact Details

This solution was designed and developed by Blackcoffer Team
Here are my contact details:
Firm Name: Blackcoffer Pvt. Ltd.
Firm Website: www.blackcoffer.com
Firm Address: 4/2, E-Extension, Shaym Vihar Phase 1, New Delhi 110043
Email: ajay@blackcoffer.com
Skype: asbidyarthy
WhatsApp: +91 9717367468
Telegram: @asbidyarthy