In the realm of cutting-edge technologies, Machine Learning (ML), Deep Learning (DL), and Artificial Intelligence (AI) stand as pivotal forces, driving innovation across industries. Yet, their intricate interplay and unique characteristics often spark confusion. In this article, we embark on a journey to demystify the trio, exploring the fundamental differences and symbiotic relationships between ML vs DL vs AI. Unravel the intricacies of each domain and gain a comprehensive understanding of how these transformative technologies collectively shape the future of intelligent systems and drive unparalleled advancements in our digital landscape.
First of all, let’s look at some of the facts and figures of the impact of AI on the IT industry at large!
This article was published as a part of the Data Science Blogathon
Artificial Intelligence (AI) | Machine Learning (ML) | Deep Learning (DL) |
---|---|---|
AI simulates human intelligence to perform tasks and make decisions. | ML is a subset of AI that uses algorithms to learn patterns from data. | DL is a subset of ML that employs artificial neural networks for complex tasks. |
AI may or may not require large datasets; it can use predefined rules. | ML heavily relies on labeled data for training and making predictions. | DL requires extensive labeled data and performs exceptionally with big datasets. |
AI can be rule-based, requiring human programming and intervention. | ML automates learning from data and requires less manual intervention. | DL automates feature extraction, reducing the need for manual engineering. |
AI can handle various tasks, from simple to complex, across domains. | ML specializes in data-driven tasks like classification, regression, etc. | DL excels at complex tasks like image recognition, natural language processing, and more. |
AI algorithms can be simple or complex, depending on the application. | ML employs various algorithms like decision trees, SVM, and random forests. | DL relies on deep neural networks, which can have numerous hidden layers for complex learning. |
AI may require less training time and resources for rule-based systems. | ML training time varies with the algorithm complexity and dataset size. | DL training demands substantial computational resources and time for deep networks. |
AI systems may offer interpretable results based on human rules. | ML models can be interpretable or less interpretable based on the algorithm. | DL models are often considered less interpretable due to complex network architectures. |
AI is used in virtual assistants, recommendation systems, and more. | ML is applied in image recognition, spam filtering, and other data tasks. | DL is utilized in autonomous vehicles, speech recognition, and advanced AI applications. |
AI is a broader term that describes the capability of the machine to learn and solve problems just like humans. In other words, AI refers to the replication of humans, how it thinks, works and functions.
On the lower ground, AI can be seen as a program that instructs the machine to function in a certain way according to the situation. So, we can call a bunch of if-else statements, AI. For instance, self-driving car moving on the road. A small algorithmic rule for such a car can be:
if distance_from_in_front <100m:
stop();
else:
keep_moving();
There are two ways of incorporating intelligence in artificial things i.e., to achieve artificial intelligence. One is through machine learning and another is through deep learning. That means DL and ML are ways of achieving AI.
Now that we have understood the term “AI”, we can take a closer look on ML and DL.
ML comprises algorithms for accomplishing different types of tasks such as classification, regression, or clustering. The accuracy of algorithms increases with an increase in data.
“Technique to learn from data through training and then apply learning to make an informed decision”
Analyzing and learning from data comes under the training part of the machine learning model. During the training of the model, the objective is to minimize the loss between actual and predicted value. For example, in the case of recommending items to a user, the objective is to minimize the difference between the predicted rating of an item by the model and the actual rating given by the user.
“Difference between the predicted and actual value is computed using loss-function or objective function. Therefore, defining the objective/loss function is the gist of ML model.”
In today’s era, ML has shown great impact on every industry ranging from weather forecasting, Netflix recommendations, stock prediction, to malware detection. ML though effective is an old field that has been in use since the 1980s and surrounds algorithms from then. Below is a small snippet of the ML model.
from sklearn.linear_model import LinearRegression predictor = LinearRegression(n_jobs=-1) predictor.fit(X=TRAIN_INPUT, y=TRAIN_OUTPUT)
Deep learning is an emerging field that has been in steady use since its inception in the field in 2010. It is based on an artificial neural network which is nothing but a mimic of the working of the human brain.
Just like the ML model, the DL model requires a large amount of data to learn and make an informed decision and is therefore also considered a subset of ML. This is one of the reasons for the misconception that ML and DL are the same. However, the DL model is based on artificial neural networks which have the capability of solving tasks which ML is unable to solve.
The future is driven by DL models. Without DL, Alexa, Siri, Google Voice Assistant, Google Translation, Self-driving cars are not possible. To learn more about building DL models, have a look at my blog on Deep Learning in-depth.
Machine learning algorithms such as Naive Bayes, Logistic Regression, SVM, etc., are termed as “flat algorithms”. By flat, we mean, these algorithms require pre-processing phase (known as Feature Extraction which is quite complicated and computationally expensive) before been applied to data such as images, text, CSV. For instance, if we want to determine whether a particular image is of a cat or dog using the ML model. We have to manually extract features from the image such as size, color, shape, etc., and then give these features to the ML model to identify whether the image is of a dog or cat.
However, DL models do not any feature extraction pre-processing step and are capable of classifying data into different classes and categories themselves. That is, in the case of identification of cat or dog in the image, we do not need to extract features from the image and give it to the DL model. But, the image can be given as the direct input to the DL model whose job is then to classify it without human intervention.
Raw Data is given to DL model. Pre-processed data is given to ML model.
With technology and the ever-increasing use of the web, it is estimated that every second 1.7MB of data is generated by every person on the planet Earth. Therefore, analyzing and learning from data is of utmost importance.
Deep Learning is seen as a rocket whose fuel is data.
The accuracy of ML models stops increasing with an increasing amount of data after a point while the accuracy of the DL model keeps on increasing with increasing data.
Below is a small snippet to build a DL model:
from keras.models import Sequential
from keras.layers.core import Dense, Activationmodel = Sequential()
model.add(Dense(10, activation=’sigmoid’, input_shape=(784,)))
model.add(Dense(10, activation=’softmax’))
In this section will be listing down the examples and use cases of ML vs DL and AI:
ML and DL algorithms require large data to work upon and thus need quick calculations i.e., large processing power is required. However, it came out that limited resources are available to implement these algorithms on large data.
Solution: Cloud computing such as Google Colab, Kaggle, Microsoft Azure brings some hope but as the volume of data goes up, the complexity of algorithms starts increasing and these resources could not help!
Unlike web development and software development, AI is quite a new field and therefore lacks many use-cases which make it difficult for many organizations to invest money in AI-based projects. In other words, there are comparatively fewer data scientists who can make others believe in the power of AI.
Solution: The remedy is to make people aware of the power of AI. Further, instead of building everything from scratch, enabling organizations to take ready-made solutions and just plug and play with data – AI-driven services.
AI-based model is black-box in nature which means all data scientists have to do is find and import the right artificial network or machine learning algorithm. However, data scientists lose trust and comfortability because they don’t understand how the model makes decisions.
Solution: One possible solution is making people believe that model really works well. Another possibility that is trending nowadays is “Explainable AI”, letting people know the reason behind the decision.
ML and DL algorithms require a large amount of data to learn and thus make informed decisions. However, data often contain sensitive and personal information which makes models susceptible to identity theft and data breach.
Solution: Nowadays, various privacy and security solutions are being provided to protect sensitive information. In addition, the implementation of the General Data Protection Regulation (GDPR) is being done by the European Union to ensure the protection of personal data.
It is a fact that today data generated is much greater than ever before. But still, there lack datasets with a great density that be used for testing AI algorithms. For instance, the standard dataset used for testing the AI-based recommendation system is 97% sparse.
Solution: Academic and industry researchers have now started working on developing AI models that can work on sparse data without compromising with accuracy.
A clear understanding of the AI ML and DL difference can empower professionals to leverage these technologies effectively.The complexities and opportunities become evident as we delve into ML vs DL vs AI. To harness the full potential of these transformative technologies and stay at the forefront of innovation, equip yourself with in-depth knowledge and hands-on experience. Embrace the transformative power of the Analytics Vidhya BlackBelt Program, curated to master ML, DL, and AI skills. Unlock a world of boundless possibilities, get mentorship from industry experts, and access a vibrant community of learners. Seize the opportunity to elevate your expertise and become a driving force in shaping the future of AI-driven systems. Explore the program today!
A. AI is a broader concept mimicking human intelligence, ML is a subset of AI that learns patterns from data, and DL is a subset of ML using neural networks for complex tasks.
A. AI and ML are interconnected, with AI being the broader field and ML being a subset.
A. The choice depends on your interests and career goals. Start with AI for a broader understanding, then explore ML for pattern recognition. If interested in advanced applications, delve into DL.
A. Each field has its strengths. AI is versatile, ML offers data-driven solutions, and AI DS combines both. The “better” option depends on your interests and the role you want to pursue.
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