Key Takeaways
Last time, we talked about the difference between machine learning and deep learning. Today, we want to tell the difference between machine learning and artificial intelligence. Although to someone who’s in the IT industry, this difference should be pretty obvious, there are many misleading conceptions about machine learning and artificial intelligence going around the Internet. That’s why we decided to tackle this issue and explain what’s the difference between machine learning and AI.
Today, artificial intelligence is one of the many buzzwords that describe the modern IT industry, and, in fact, our whole world. We can see AI almost everywhere:
And in the companies as well! Nowadays, intelligent assistants enhance our abilities as humans and professionals. They make us more and more productive, allow us to work in a smarter and faster way–they take the repetitive and administrative tasks off our hands. But what is artificial intelligence all about? And what’s the difference between machine learning and AI?
Actually, if you asked a randomly selected Internet user to explain what AI is, the level of complexity of this question could easily compete with quantum physics. It’s like a black hole–we all think that we understand the concept, but it takes a lot of knowledge to explain them correctly.
So, this is exactly what we are going to do today! We are going to explain what is the difference between machine learning and AI.
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First of all, we need to understand what AI is. In fact, it’s an extensive and complex term. In our last article, we told you that it is “commonly used to describe all the technologies, algorithms, and programs capable of working without human assistance.” And it’s a 100% accurate definition. Today, however, let’s take one step forward and say that
AI is a concept to create intelligent machines, algorithms, and applications that can simulate human thinking capability.
As Andrew Moore, Former-Dean of the School of Computer Science at Carnegie Mellon University once said, “Artificial intelligence is the science and engineering of making computers behave in ways that, until recently, we thought required human intelligence.”[1]
As a result, such computers or machines can move and manipulate objects, recognize people, and track their movement, or solve repetitive problems. Sounds simple? Well, it’s not. And, oddly enough, even for companies that claim to work with artificial intelligence!

Even today, “AI” is often used as a marketing label rather than a technical claim. A widely cited 2019 MMC report found that around 40% of European companies classified as “AI startups” showed no real evidence of using AI — and while the AI landscape has changed dramatically since then, the underlying problem hasn’t gone away.
Today the same dynamic plays out around the words “agentic,” “generative” or “AI-native.” Whether a product truly uses AI in any meaningful way depends not on its branding, but on what’s actually happening under the hood — whether it learns from data, adapts over time, or simply runs a deterministic script with an LLM wrapper.
We ought to begin by saying that AI is a part of computer science. It’s a technology using which we can create intelligent systems that can simulate human intelligence. As a result, these systems can perform many tasks that in the not-too-distant past required human presence.
Based on AI capabilities, this technology can be classified into three types:
Currently, we are working with weak AI and strong AI. In the near future, we can expect to see the super AI, for which it is said that it will be more intelligent than humans. It’s also known as artificial superintelligence (ASI) or just superintelligence. The predictions are that even the brightest human minds won’t even come close to the abilities of super AI[3]. But, as we already said, it’s still a thing of the future. The fact is, however, that AI is changing faster than its history can be written, so predictions about its future are unreliable.
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In the previously-mentioned MMC report, we can find out that when companies work with artificial intelligence, they primarily focus on two applications:

Today, AI is used in a multitude of fields and industries. Let’s take a look at some of the most common modern AI applications:
These are B2C AI use cases, but this technology in more and more common in the B2B environment, especially in:
Before we switch to machine learning, it’s vital, to sum up quickly what we already know about AI:
Now, you know a lot about artificial intelligence, much more than a typical internet user. Let’s now think about the difference between machine learning and AI. The first thing you need to know is that machine learning is not an entirely separate technology. Actually, it’s a subset of artificial intelligence.
Machine learning enables programs and algorithms to learn from data and experience without human assistance. Hence the name – it’s all about machine(s) learning (themselves)!
Machine learning is used to make predictions or decisions using historical data. This technology uses a massive amount of data so that the machine learning model can learn from it and generate accurate results. ML relies on working with specific datasets by examining and comparing data in order to:
At this point, we have to state that Machine learning has a limited scope of possible applications. Machine learning is working to create machines and algorithms that can perform only those specific tasks for which they are trained. They are concentrated almost exclusively on predictions and finding patterns. When it comes to other applications, like, for instance, online communication with the customer–you have to opt for other solutions.
| Dimension | Artificial Intelligence (AI) | Machine Learning (ML) |
|---|---|---|
| Scope | Broad field — any system that simulates human intelligence | Subset of AI focused on learning from data |
| Goal | Mimic human decision-making, reasoning, perception, language | Find patterns, make predictions, classify, cluster |
| How it works | May use rules, logic, search, ML, or combinations | Learns from data without explicit programming |
| Data dependency | Not always data-driven (rule-based AI exists) | Heavily depends on data quality and volume |
| Examples | Voice assistants, autonomous vehicles, recommendation systems, generative AI | Spam filters, fraud detection, image classification, demand forecasting |
| Output | A “thinking” or acting system | A trained model that makes predictions |
| Includes | Machine learning, deep learning, NLP, computer vision, generative AI, expert systems | Supervised, unsupervised, reinforcement, and deep learning |
So, to make this machine learning question more understandable, let’s use a healthcare example to show you how it works:
If you load a machine learning program with a dataset of medical pictures, let’s say presenting cancer cells, along with their description (you have to indicate which tissue is attacked by cancer and which one is healthy), it will have the capacity to assist in (or even fully optimize!) the data analysis of these pictures. As a result, human physicians can spend much less time on examining medical images, which, in turn, allows them to start treatment significantly quicker.

As you know from our previous text, the machine learning algorithms parse data, learn from it in a similar way humans learn–based on experience (previous knowledge), and then apply what they’ve learned to produce the desired outcome.
Machine learning can be divided into two main categories:
Both of these categories are used for different purposes. Supervised machine learning is used when you want to predict or explain the data you possess. The unsupervised machine learning methods find hidden patterns or intrinsic structures in data. In addition, these techniques can be used for, e.g., customer segmentation or product structurization. There’s also reinforcement learning. RL makes a case for itself when you have little or no historical data. The RL algorithms don’t need any information in advance, ergo they learn from data during the process. Reinforcement learning can be used in robotics for industrial automation.
If you’d like to read more about machine learning techniques and methods, that’s the article for you!
Today, machine learning is being used in various places and industries, such as:

The same way machine learning is a subset of AI, deep learning is a subset of machine learning. It’s based on artificial neural networks with multiple hidden layers — hence the word “deep.”
What sets deep learning apart is that, instead of relying on human-designed features, it learns useful representations directly from raw data. This makes it the dominant approach for problems where humans struggle to define rules explicitly: image recognition, speech-to-text, machine translation, and — most recently — generative AI.
A simple mental model:
Since this article was originally written, one branch of AI has reshaped public perception of what artificial intelligence can do: generative AI. Built on a class of deep learning models called transformers (introduced in 2017), generative AI produces new content — text, images, code, audio — rather than only classifying or predicting.
The most visible examples are large language models (LLMs) like GPT, Claude, Gemini, and open-source alternatives such as Llama and Mistral. They power tools millions of people now use daily: ChatGPT, Microsoft Copilot, Google’s Gemini, and countless enterprise applications.
So how does this fit our AI vs ML picture?
In short, generative AI hasn’t replaced traditional ML — it has expanded what ML-based AI can do. Most real-world enterprise AI systems in 2026 combine both: classical ML for forecasting, fraud detection and recommendations, plus LLMs for natural-language interfaces, document understanding and content generation.
If someone asks you “What’s the difference between artificial intelligence and machine learning?” — here’s the short answer:
Different problems call for different tools. A spam filter doesn’t need an LLM; a customer-support chatbot probably does; a fraud-detection system likely combines both. The right question is rarely “AI or ML?” — it’s “which technique fits this specific problem, this data, and this risk profile?”
If you’d like help mapping a real business problem to the right approach — classical ML, deep learning, generative AI, or a combination — book a 30-minute call with our team and we’ll talk through it.
[1] Roberto Iriondo. Machine Learning (ML) vs. Artificial Intelligence (AI) — Crucial Differences. Oct 16, 2018. URL: https://pub.towardsai.net/differences-between-ai-and-machine-learning-and-why-it-matters-1255b182fc6. Accessed May 26, 2020.
[2] James Vincent. Forty percent of ‘AI startups’ in Europe don’t actually use AI, claims report. Mar 5, 2019. URL: https://www.theverge.com/2019/3/5/18251326/ai-startups-europe-fake-40-percent-mmc-report. Accessed May 26, 2020.
[3] Thinkautomation. Types of AI: distinguishing between weak, strong, and super AI. URL: https://www.thinkautomation.com/bots-and-ai/types-of-ai-distinguishing-between-weak-strong-and-super-ai/. Accessed May 26, 2020.
No. Artificial intelligence is the broader goal — building systems that act intelligently. Machine learning is one approach to AI: it learns from data rather than following hand-written rules. All machine learning is AI, but not all AI is machine learning.
Deep learning is a specific type of machine learning based on neural networks with many layers. It tends to outperform classical ML on problems involving images, speech and natural language, but at the cost of needing more data and more compute. For tabular business data, classical ML (random forests, gradient boosting) is often still the better and cheaper choice.
Both. ChatGPT is an AI system built on a large language model — a type of deep learning, which is a type of machine learning. So it’s AI, ML and deep learning at the same time, with “generative AI” describing what it does (produce new text).
Data science is the broader practice of extracting insight from data, using statistics, visualization and increasingly ML. Machine learning is one set of techniques data scientists use. AI is the goal of building systems that act intelligently, often (but not always) using ML. The three overlap heavily in practice.
Start from the problem, not the technology. If you need to predict, classify or detect patterns from historical data — that’s machine learning. If you need a natural-language interface, document understanding or content generation — that’s typically a generative AI / LLM problem. Many real systems combine both.
Weak (or narrow) AI handles a single defined task — almost everything in production today, including LLMs, is weak AI. Strong AI (or AGI) would match a human across any task; it doesn’t exist yet. Super AI would exceed human intelligence broadly — currently a theoretical concept rather than an engineering reality.
No — that question mixes the categories. AI is the umbrella; machine learning is one of the tools inside it. Newer techniques like LLMs don’t replace classical ML; they sit alongside it. Most enterprise AI systems use both.
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