What Are the Different Types of AI Learning Models & How to Use Them

Imagine you're at a crossroads, deciding which direction will lead to the best results for your business. While each route has promising benefits, each choice will yield different outcomes. This is a lot like selecting an AI learning model. Each model has unique properties that make it suitable for specific tasks and not others. Choosing the right one for your business will maximize efficiency and accuracy for your particular goals. In this guided article, we'll help you confidently identify and implement the best AI learning model for your next project. We will also touch upon the difference between AI Inference vs Training.

One valuable resource to help you achieve your objectives is AI inference APIs. These easy-to-use tools can help you quickly evaluate how well different models will perform before you commit to one.

What are the Different Types of AI Learning Models?

Various AI learning models exist because they help artificial intelligence complete tasks more efficiently and accurately. Different models have distinct capabilities, so each one is suited to specific functions. Depending on the type of AI model used, it can dramatically change the outcome of a project.

AI Learning Models: Knowledge-Based Classification

AI learning models can be classified into two main types based on their representation of knowledge:

• Inductive
• Deductive

Inductive Learning

This type of AI learning model is based on inferring a general rule from datasets of input-output pairs. Algorithms such as Knowledge-Based Inductive Learning (KBIL) are a great example of this AI learning technique. KBIL focuses on finding inductive hypotheses on a dataset with the help of background information.

Deductive Learning

This AI learning technique starts with a series of rules and infers new, more efficient regulations in the context of a specific AI algorithm. Explanation-based learning (EBL) and Relevance-Based Learning (RBL) are examples of deductive techniques.

EBL extracts general rules from examples by “generalizing” the explanation. RBL focuses on identifying attributes and deductive generalizations from simple examples.

AI Learning Models: Feedback-Based Classification

Based on feedback characteristics, AI learning models can be classified as:

• Machine learning
• Supervised learning
• Unsupervised learning
• Deep learning

Machine Learning Models

Machine learning is a subset of AI. While all machine learning is AI, not all AI is machine learning. Data scientists train algorithms with labeled, unlabeled, or mixed data to create a machine learning model. There are different types of machine learning algorithms for various goals:

• Classification recognizes certain entities in the dataset to conclude how they should be labeled or defined.
• Regression helps make predictions. It understands the relationship between independent and dependent variables.

Data is modified to execute a specific task best and becomes an ML model. ML models examine certain variables within the data and find patterns that help make predictions. ML models will improve as they are trained and exposed to more data.

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6 Steps for Training an AI Learning Model

1. Prepare the Data: The Crucial First Step in Training an AI Model

The first step in training an AI model is preparing your data by collecting, cleaning, and preprocessing the information you will use to train the model. The data's quality and relevance will significantly impact its performance, making this step critical.

The most common methods of gathering data are web scraping, crowdsourcing, open-source data collection, in-house data collection, synthetic data generation, and sensor data collection. The following table gives a summary of each technique:

• Web Scraping involves using automated tools to extract structured data from websites. This method is commonly used by e-commerce companies for competitive analysis, particularly for tracking product and pricing data.
• Crowdsourcing gathers data from a large group of people via online platforms. Social media platforms utilize this approach for sentiment analysis, leveraging public input to assess trends and opinions.
• Open-Source Data Collection relies on publicly available datasets. Research institutions frequently use this method to train image recognition models, benefiting from freely accessible data repositories.
• In-House Data Collection involves gathering data from internal systems, surveys, and experiments. Software companies often use this approach to develop proprietary tools, ensuring the data aligns with their specific needs.
• Synthetic Data Generation uses algorithms and simulations to create artificial data. Healthcare organizations apply this technique to develop and test AI algorithms for medical diagnosis and treatment planning, particularly when handling confidential patient data.
• Sensor Data Collection captures data from cameras, GPS, and IoT devices. Manufacturing and industrial companies rely on this method for training predictive maintenance models, optimizing operations through real-time insights.

2. Select the AI Model: Picking the Perfect Tool for the Job

Selecting the appropriate AI model involves considering factors such as the size and structure of your dataset, the computational resources available, and the complexity of the problem you’re trying to solve.

Some of the most common AI training models include the following:

• Linear Regression: Identifies the relationship between a dependent variable and one or more independent variables; typically used for forecasting sales and economic trends.
• Logistic Regression: Predicts binary outcomes; usually applied in credit scoring and medical diagnosis.
• Decision Trees: These split data into branches to make predictions based on feature values. They are suitable for customer segmentation and risk assessment.
• Random Forests: Combines multiple decision trees for better accuracy; often deployed in fraud detection and recommendation systems.
• Support Vector Machines (SVMs): Determine the best boundaries to separate data categories; frequently used in image recognition and text classification
• Neural Networks: Use layers of interconnected nodes to learn complex patterns; widely used for image and speech recognition and natural language processing (NLP).

3. Choose the Training Technique: Finding the Right Fit for Your AI Model

Choosing the proper learning technique involves weighing all the same factors as in the model selection step to optimize the performance of your AI models.

The following learning methods can be applied to AI training:

• Supervised Learning: This relies on labeled data where inputs are paired with desired outputs; it is ideal for classifying medical images or predicting credit card fraud, where the relationship between the input and target variables is known.
• Unsupervised Learning: Deals with unlabeled datasets to discover hidden patterns and structures; useful for customer segmentation by grouping customers based on similarities without predefined labels.
• Semi-supervised Learning: Combines supervised and unsupervised learning and uses labeled and unlabeled data to enhance functionality and refine precision; applied in scenarios where labeled data is difficult or expensive, but unlabeled data is available, like in medical image analysis.

4. Train Your AI Model: Molding the Model to Your Data

Feed your prepared data into the model to identify errors and make adjustments to increase accuracy. During this phase, it’s critical to be mindful of overfitting, which occurs when your AI model performs well on the training data because of memorization instead of learning, leading to the failed interpretation of new, unseen data.

5. Validate Your AI Model: Checking for Errors and Overfitting

Validate the performance of your AI model by evaluating how it performs on a separate and often more complex dataset not used during the training process. This step will help reveal overfitting problems and determine if the model needs additional training or modification.

6. Test Your AI Model for Readiness: Making Sure Your Model Is Ready for Action

The final step is to test your AI model on an independent dataset to assess its real-world applications and ensure it can be used effectively in production.

It is prepared to go live if it performs as expected and delivers correct results based on unstructured data. If not, fine-tune the model by gathering more data, retraining, and retesting it to enhance its precision.

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