Generative AI models are capturing the spotlight in fields such as entertainment, marketing, education, and software development. According to Deloitte, a growing number of companies now allocate between 20% and 39% of their AI budgets to generative AI initiatives. However, it is not the only type of artificial intelligence that serves businesses. Discriminative AI models have quietly powered the market for decades, improving operations.
This article compares generative AI vs. discriminative AI, examining their models, key differences, and how businesses can leverage each technology to their advantage. We’ll also provide real-world examples of companies applying these types of AI to solve a variety of business challenges.
Key takeaways:
- Generative AI and discriminative AI serve different business needs: generative models are used for content creation and simulation, while discriminative ones excel at classification and prediction.
- Generative AI is widely used in marketing, customer service, and content creation to automate creative tasks and deliver personalization at scale.
- Discriminative models handle operational processes like fraud detection, credit scoring, and customer segmentation, driving fast, accurate, and explainable decisions.
- Companies like Klarna, UBS, and Shopify use generative AI to improve efficiency, automate services, and streamline store creation, while others like Wayfair and eBay rely on discriminative models to classify data and improve search relevance.
What is generative AI?
Generative AI is a type of artificial intelligence that creates new content by learning data patterns from existing datasets. Unlike traditional AI that classifies or predicts outcomes, generative AI produces original outputs that resemble what it was trained on, making it particularly useful for ideation, drafting, simulation, or automation.
How does generative AI work?
Generative AI models analyze data distribution and structure and then use that knowledge to generate realistic output. For example, a system trained on thousands of product descriptions can write new ones in the same tone and style.

Under the hood, many systems are built using foundational generative algorithms that learn patterns from data and produce new, similar content. These algorithms are the backbone of powerful generative models, including:
- Variational Autoencoder (VAE) learns compressed, continuous latent representations of data to generate structured and coherent outputs.
- Generative Adversarial Network (GAN) consists of two neural networks—a generator and a discriminator—that train in opposition to produce highly realistic visuals.
- Hidden Markov Model (HMM) represents sequential data by assuming an underlying process with hidden states that emit observable outputs based on probabilistic transitions.
- Latent Dirichlet Allocation (LDA) is used to identify topics in a collection of documents by modeling word distributions.
- GPT (Generative Pre-trained Transformer) enables human-like text generation by learning language patterns from vast amounts of textual data.
- DALL·E generates images from textual descriptions by combining natural language understanding with image synthesis capabilities.
Applications of generative AI models across industries
Generative AI is transforming industries like fintech, banking, and e-commerce by addressing a range of business challenges. With its capabilities in text, audio, video, and image synthesis, it enables companies to produce content, simulate scenarios, and automate both creative and repetitive tasks. Businesses commonly use it to generate marketing assets, craft chatbot replies, and model user behavior in testing environments.
Common use cases include:
- Marketing automation: writing personalized email campaigns, ad copy, and product descriptions at scale.
- Customer support: drafting automated responses or knowledge base articles.
- Product content creation: generating product images, titles, and descriptions based on structured data.
- Synthetic data generation: creating artificial but realistic datasets for training other models, especially when real data is limited or sensitive.
- Design and ideation: producing visuals, mood boards, or mockups for faster product development.
- Language translation and summarization: converting documents or summarizing long reports using natural language generation.
To see GenAI in action, consider the following scenario: A regional bank wants to improve customer satisfaction by cutting down response times in its support center. However, hiring more staff will exceed the budget. In this case, the bank can introduce a generative AI assistant trained on historical chat logs and internal documentation. The tool will draft consistent, on-brand replies that agents could quickly review and send. This setup will allow the team to handle more inquiries without onboarding new people.
Here is another scenario of how GenAI can be used in retail: an online marketplace with a large network of third-party sellers struggles with inconsistent product listings. Instead of scaling up its content team, the company might deploy a generative AI model trained on well-performing product descriptions. The system will rewrite seller-submitted text into clear, SEO-friendly copies using product data. This, in turn, will improve the quality of listings and marketplace visibility in search results.
Real-world examples of using generative AI in business
Generative AI is primarily involved in customer-facing or creative scenarios like designing marketing campaigns or personalizing messages. However, it can also handle internal tasks, such as generating synthetic datasets for training.
- Mastercard uses generative AI to detect compromised cards twice as fast. By scanning billions of transactions across millions of merchants, the system spots subtle patterns that suggest fraud, even when card details have been leaked online only partially. It can predict full card numbers more accurately, reduce false positives by up to 200%, and identify compromised or at-risk merchants three times faster than before.
- Another example in banking comes from UBS, a Zurich-based bank, which is experimenting with generative AI to create video summaries of analyst research using realistic AI-generated avatars. The goal is to free up analysts’ time while meeting the growing client preference for this format. The process begins by converting written research into scripts, which are reviewed by analysts and then presented by an AI avatar.
- In 2024, Klarna, a global fintech company, rolled out an OpenAI-powered customer service assistant that now handles two-thirds of all customer chats (equivalent to the workload of 700 full-time agents). Repeat inquiries have since dropped by 25%. The assistant, fluent in over 35 languages, is available 24/7 in 23 markets. It helps users resolve issues like refunds, returns, and invoice errors in less than two minutes.
- In 2024, Klarna, a global fintech company, launched a customer service assistant powered by OpenAI, now managing two-thirds of all customer chats, equivalent to the workload of 700 full-time agents. Since its rollout, repeat inquiries have dropped by 25%. Available 24/7 across 23 markets and fluent in over 35 languages, the assistant helps users quickly resolve issues like refunds, returns, and invoice errors—often in under two minutes.
- The e-commerce platform Shopify has launched a tool, AI Store Builder, that can build entire online stores using several descriptive keywords. It simplifies setup for merchants by generating three ready-to-use store layouts—complete with images and text—from just a few prompts.
What is discriminative AI?
Discriminative AI models are built for precision. Rather than generating new data, they focus on understanding and classifying existing information. In particular, discriminative models learn to differentiate between fraud and non-fraud, relevant and irrelevant search results, or different customer segments.
How does discriminative AI work?
The goal of the discriminative approach is to distinguish the boundaries between classes or categories of data. By identifying what makes one group different from another, the model can assign labels, scores, or predictions with a high degree of accuracy.
Discriminative AI is typically powered by well-established algorithms: logistic regression, often used for binary classification tasks; support vector machines (SVMs), known for their ability to find optimal decision boundaries in complex datasets; and random forests or gradient boosting machines, widely used in finance for credit scoring and risk prediction.
These algorithms make it possible to build powerful discriminative models, including:
- BERT (Bidirectional Encoder Representations from Transformers) is used for tasks like intent detection or sentiment analysis to better understand and classify text.
- RoBERTa is an optimized version of BERT that delivers higher accuracy in natural language classification tasks by enhancing training methods and removing some of BERT’s original limitations.
- ResNet (Residual Neural Network) is a popular technology for image classification tasks, particularly in fields like medical imaging and retail visual recognition.
- VGGNet is a convolutional neural network used for detailed image classification and object detection, known for its uniform architecture and high precision in visual recognition tasks.
- TabNet is a deep learning model tailored for tabular data, combining high performance and inherent interpretability.
Applications of discriminative AI models across industries
Discriminative AI shines in high-stakes scenarios that demand reliability and clarity. Its goal is not to generate insights but to make binary decisions.
It serves as the foundation of predictive decision-making in enterprise software. Discriminative AI models are best suited for applications that require classification, ranking, detection, or risk scoring, with reliable and explainable outputs.
Common use cases include:
- Credit scoring: predicting loan default risk based on structured financial data.
- Customer segmentation: categorizing users by behavior, preferences, or value.
- Churn prediction: estimating which customers are likely to stop using the service.
- Search relevance and recommendation: ranking the most relevant results or products
- Sentiment analysis: categorizing customer feedback or social media posts as positive, negative, or neutral.
- Medical diagnostics: classifying images or health records for early disease detection.
To better understand how discriminative AI works, imagine a mid-sized retail bank struggling to detect fraudulent transactions quickly enough to prevent customer losses. By implementing discriminative models trained on historical transaction data, the bank can flag suspicious behavior in real time. Each transaction is assigned a risk score based on recognized fraud patterns, enabling faster and more accurate responses.
Or suppose that a fintech company offering instant loan approvals needs to make accurate decisions, often without access to traditional credit scores. In this case, it can use discriminative AI models trained on alternative data—payment history, digital behavior, or device signals—to classify applicants by risk.
Yet another case is an e-commerce business with a fast-growing product catalog that struggles to keep items properly categorized, especially when listings come from a wide range of sellers. To improve consistency, the company can deploy a discriminative AI model that automatically classifies products into the correct categories based on image, title, and description.
Real-world examples of discriminative AI
It can be challenging to find standout case studies on how discriminative AI improves business processes, not because it’s rarely used, but because it’s so seamlessly integrated into everyday operations. In fact, these models play a vital role behind the scenes in many industries. Here are a few notable examples:
- Wayfair, a U.S.-based online retailer, leverages discriminative AI models to automatically classify and analyze customer feedback. This not only reduces operational costs but also ensures more consistent insights. By processing comments in real time, the system enables quicker and more informed responses to customer needs.
- Similarly, eBay employs a customized version of the ResNet-50 discriminative model to power visual search features like ShopBot and Close5. Instead of relying on keywords, shoppers can upload a photo of the item they’re seeking, and the model instantly classifies it into the appropriate category and retrieves similar listings. It can even identify details such as color, brand, and material, delivering more accurate and personalized search results.
Discriminative AI vs. generative AI: Key differences
Generative and discriminative AI both rely on machine learning, but they approach problems in fundamentally different ways. Understanding these differences is key to choosing the right model for each business task.
Purpose and function
Generative models are designed to create new content. They can simulate conversations, generate marketing copy, or produce synthetic images. According to McKinsey, around 75% of the business value that generative AI use cases could deliver falls across customer operations, marketing and sales, software development, and R&D.
Meanwhile, discriminative models are built to make decisions. They classify emails as spam, rank search results, or predict which users are likely to churn.
Power smarter decisions with AI
Uncover the AI solutions that align with your business goals and drive real results
Training approach
One of the most significant differences between generative and discriminative models is how they are trained, what they learn from data, and how they use this knowledge.
Generative AI models learn how inputs and outputs occur together (the joint probability), which allows them to produce new, original content. This type of training relies on unsupervised machine learning algorithms, where the model learns from raw, unlabeled data by identifying patterns, structures, and relationships.
Discriminative models are trained to tell classes apart by learning the boundaries between different outcomes. This process is typically supervised, which means the model is trained on labeled datasets.
Output and interpretability
Another important distinction between generative and discriminative AI is what they produce and how easily their results can be interpreted and explained.
Generative AI focuses on producing entirely new content that resembles the data it was trained on. The output is typically unstructured and open-ended, making GenAI especially valuable for creative tasks such as copywriting, design, or product content generation.
While powerful, generative models are less interpretable. Their complex, opaque decision-making makes it difficult to trace how a specific result was generated, and in many cases, they can “hallucinate,” producing content that is inaccurate or unreliable.
By contrast, discriminative AI focuses on delivering structured, specific outcomes such as class labels, probability scores, or decisions. Its outputs are usually easier to interpret, especially when traditional algorithms like logistic regression or decision trees are used. Moreover, the decisions these models make can often be attributed to specific features in the input data, which makes them highly valuable in regulated industries like banking, healthcare, and insurance.
Computational efficiency
Conversations about discriminative vs. generative AI often revolve around computational efficiency, especially for companies working within cost, performance, or deployment speed limitations.
Generative models tend to be more computationally intensive. Trained to model the full distribution of data and generate new outputs, GenAI models require more complex architecture, longer training, and significantly greater compute resources.
Discriminative models, on the other hand, are lighter and more efficient. Since their objective is classifying data, they only need to learn the boundaries between categories. This means smaller architecture, quicker training, and lower inference latency. However, discriminative models generally need more training data.
Classical discriminative algorithms like logistic regression, SVMs, or decision trees can be trained quickly and deployed even on modest hardware, while large language models like GPT often involve billions of parameters and demand high-end GPUs to run efficiently.
Ethical considerations
Concerns about ethics and accountability are integral to all artificial intelligence conversations, and the discriminative AI vs. generative AI debate is no exception.
Generative AI’s ability to create new content breeds ethical gray areas. Its models can generate highly realistic yet entirely fabricated outputs, which poses risks in contexts where accuracy, authenticity, or originality matter.
Other concerns include:
- Misinformation
- Plagiarism and intellectual property issues
- Deepfakes and impersonation
- Perpetuation of bias
- Lack of transparency
In discriminative AI, ethical concerns often stem from the training data. If the data reflects historical inequalities, the model may learn and replicate them. And since discriminative models focus on sensitive matters like credit approvals, hiring, or insurance risk calculations, even small biases in the training data can lead to unfair or discriminatory outcomes.
| Aspect | Generative AI | Discriminative AI |
|---|---|---|
| Primary purpose | Creates new, original content | Makes decisions and classifications |
| Output type | Unstructured, open-ended content (text, images, audio, video) | Structured outcomes (labels, scores, probabilities) |
| Content creation | Produces entirely new material resembling training data | Analyzes and categorizes existing data |
| Interpretability | Less interpretable, opaque decision-making process | More interpretable, traceable to specific input features |
| Reliability | Can “hallucinate” and produce inaccurate content | Generally, more reliable and consistent outputs |
| Computational requirements | More intensive, complex architecture, longer training | Lighter and more efficient, smaller architecture |
| Training speed | Longer training times | Quicker training |
Choose the right AI path for your business
Choosing the right technology for your business can be overwhelming, but it doesn’t have to be. At Neontri, we specialize in helping companies navigate the ever-evolving landscape of AI, software development, and digital transformation. Whether you’re exploring automation, looking to enhance customer experience, or need a solution for data-driven decision-making, we’re here to guide you every step of the way.
Our team takes the time to understand your goals, challenges, and existing systems. From there, we recommend solutions that are not only technically sound but also aligned with your business strategy. With experience across fintech, e-commerce, and enterprise environments, Neontri ensures you get tools that are smart, scalable, and ready to deliver real impact.
Final thoughts
Generative models introduce flexibility and creativity, making it possible to automate content, personalize experiences, and speed up product development. Discriminative models focus on classifying existing data by learning the boundaries between categories. Choosing between the two models depends on your specific business goals—whether you need to generate content or make accurate predictions from data.
Not sure which approach fits your needs? Let Neontri help you find the right solution for maximum impact. Contact us to discuss your next AI project.
Resources
- https://www2.deloitte.com/content/dam/Deloitte/us/Documents/consulting/us-state-of-gen-ai-q4.pdf
- https://www.mastercard.com/news/press/2024/may/mastercard-accelerates-card-fraud-detection-with-generative-ai-technology/
- https://fortune.com/europe/2025/05/20/ubs-bank-ai-generated-video-avatars-analysts/
- https://www.klarna.com/international/press/klarna-ai-assistant-handles-two-thirds-of-customer-service-chats-in-its-first-month/
- https://www.aboutwayfair.com/tech-innovation/bert-does-business-implementing-the-bert-model-for-natural-language-processing-at-wayfair
- https://www.researchgate.net/publication/317558524_Visual_Search_at_eBay
- https://www.mckinsey.com/capabilities/mckinsey-digital/our-insights/the-economic-potential-of-generative-ai-the-next-productivity-frontier