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Churn prediction is a methodology that involves the data-driven pinpointing of customer accounts that are at high risk of downgrading their engagement, canceling their subscription, or disengaging with your company.
Customer churn prediction is based on multiple parameters:
Churn prediction is a multi-step approach. Understanding the risk factors and uncovering blind spots is just the beginning. You’ll then need to coordinate your efforts with other departments like support, marketing, and other post-sales personas to eliminate the issues you have detected. Even after an account is saved, it should be tracked and monitored closely.
In this article:
Related: The Ins and Outs of Churn Analysis
Implementing an accurate and reliable churn prediction model can help your business achieve sustainable growth. More and more post-sales executives are now turning to this methodology to fine tune their customer success playbooks and strategies.
Here are a few benefits of using churn prediction:
A churn prediction model helps identify customers who are likely to leave a company’s service within a certain time frame. The model typically relies on historical data and machine learning algorithms to predict future behavior.
Here are the key components of a churn prediction model:
While the benefits of having a capable customer churn prediction model in place are quite clear, implementing one is a whole new story. Traditional methods and techniques are becoming more and more outdated as online businesses evolve.
Let’s take a closer look:
Here are the primary methods that can be used to predict customer churn.
Logistic regression is a statistical method for binary classification problems, where the outcome is a categorical variable that can take on one of two possible values, such as churn or no churn. The model works by fitting a logistic function to the data, which outputs probabilities that can be mapped to the binary outcomes.
This function is defined as the sigmoid function, which produces values between 0 and 1, making it suitable for probability estimation. Each coefficient in the model represents the log odds of the dependent variable (churn) for a one-unit change in the corresponding predictor variable, holding all other predictors constant.
For example, in a customer churn scenario, features such as the number of support tickets, frequency of product use, and customer tenure can be included in the logistic regression model. By analyzing the coefficients, companies can identify which factors are most strongly associated with churn.
Decision trees are a type of supervised learning algorithm used for classification tasks. They work by recursively splitting the data into subsets based on the value of input features, creating a tree-like model of decisions and their possible consequences. Each node in the tree represents a decision point based on a feature, and each branch represents the outcome of that decision.
The process begins with the root node, which represents the entire dataset. The algorithm selects the feature that best splits the data into two distinct groups based on a criterion like Gini impurity or information gain. This process is repeated for each subsequent node, resulting in a tree structure where the leaves represent the final classification outcomes.
Decision trees are intuitive and easy to visualize, helping understand the decision-making process behind churn predictions. For example, a decision tree might reveal that customers who have not logged in for over a month and have a high number of unresolved support tickets are at high risk of churning.
Ensemble methods combine multiple individual models to create a more accurate predictive model. By aggregating the predictions of several models, the ensemble can achieve better performance than any single model alone. Two popular ensemble techniques for churn prediction are Random Forests and Gradient Boosting Machines (GBMs).
Random Forests consist of multiple decision trees trained on different subsets of the data. Each tree makes its own prediction, and the final output is determined by averaging the predictions of all the trees (for regression tasks) or by majority voting (for classification tasks). This reduces overfitting and increases model stability, as the errors of individual trees tend to cancel out.
GBMs build trees sequentially, where each new tree attempts to correct the errors of the previous ones. This is done by fitting the new tree to the residual errors of the existing model, gradually improving the overall prediction accuracy.
Modern AI systems used for churn prediction are primarily based on neural networks, also known as deep learning. Neural networks are machine learning models inspired by the structure and functioning of the human brain. They consist of layers of interconnected nodes, or neurons, where each connection has an associated weight. Neural networks can capture complex, non-linear relationships in data.
A basic neural network architecture includes an input layer, one or more hidden layers, and an output layer. The input layer receives the raw data, while the hidden layers perform various transformations and computations. The output layer provides the final prediction, typically as a probability score indicating the likelihood of churn.
Training a neural network involves adjusting the weights of the connections through a process called backpropagation, which minimizes the error between the predicted and actual outcomes. This iterative process continues until the model achieves satisfactory performance.
Neural networks can significantly outperform simpler models in terms of accuracy. For example, a neural network might uncover subtle interactions between user engagement metrics and support history that contribute to churn risk.
The ideal churn prediction model can vary based upon the industry you belong to and other factors like geolocations, company size, target audience profiles, and more. But the foundation of most modern churn prediction models are the same.
You’ll need to integrate the following components into your model.
Start off with granular customer segmentation
Customer segmentation is important because most products serve multiple user segments. Every segment has different needs, product usage, and service requirements. Some customers are high-touch and need to be approached daily, while others may prefer the solo route and like to work with online documentation or knowledge bases.
Key parameters you need to consider for this step include – demographics (age, gender, etc.), behavioral data (for example, how many tickets are opened on average?), revenue information, and subscription contract terms.
Constantly track and monitor product usage patterns
The traditional method was waiting for customer usage to dip to dangerous levels before getting involved, but this approach is no longer useful. You need to set KPI thresholds for product usage and use the right solutions to make sure they are not crossed. Furthermore, your teams should be looking out for trends. For example, if a new feature has not been received well by multiple customers, this might be a sign of trouble.
Real-time sentiment score tracking
Customer sentiment is a fusion of perception, opinions, and also the overall user experience. This can be related to the onboarding process, unresolved issues, in-app friction points, the performance of the support team, and more. Customer success executives need to have a system in place to feel the pulse and detect sudden drops in customer sentiment. Failing to do so can result in unexpected churn and brand damage that’s hard to fix.
Stakeholder mapping and ongoing monitoring
Stakeholders, such as brand advocates and champions, must be taken into account in churn modeling. Any change in their position or status has a direct impact on accounts, and might have a dramatic effect on churn rates. You need to conduct a comprehensive stakeholder analysis and mapping, after which they must be nurtured and contacted to convert new engagement and growth opportunities.
Predicting churn comes down to continuously feeling the customers’ pulse. But unlike medical tests where the doctor just needs to touch your wrist for 30 seconds, customer success executives need to touch multiple points – the product, the service being provided, and support levels, all of which add up to the overall value that your business is creating in the eyes of the customer.
Churn prediction can be done efficiently using traditional methods when businesses are just getting started, but things get complicated at scale. This is when companies have to increase the number of accounts per customer success manager and cut corners with their support operations. Add in the multiplying use cases with tough customer requirements and you have a situation that can go downhill pretty quickly. AI is helping businesses keep their service levels high to unlock more NRR.
AI scans all vendor-customer communications automatically to track relationships and sentiment fluctuations to highlight risks and point at new growth opportunities. Not only are these activities more accurate and data-driven, but customer success teams have more time on their hands. They can proactively act upon these unbiased insights and put more effort into growing and nurturing accounts in real-time.
You can now scale up your business even with limited post-sales resources without overwhelming your customer success managers with manual playbook-related tasks and with no impact on the quality of your service or support. AI is a true gamechanger to customer-facing teams.
Detect and Prevent Customer Churn with Staircase AI
In a perfect world, you would know exactly why customers churn and could prevent it using all available historical data. Staircase AI makes this possible with our advanced AI churn prediction scores. With Staircase AI, you can:
Staircase AI provides the tools you need to understand and prevent customer churn, helping you maintain a healthy and loyal customer base.
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