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Showing posts from July, 2022

EXPLAIN HOW DEEP LEARNING WORKS?

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  Deep learning networks gain knowledge by identifying complex patterns in the data they process. The networks can develop several degrees of abstraction to describe the data by constructing computational models that are made up of many processing layers. For instance, a convolutional neural network, a type of deep learning model, can be trained using a lot (like, millions) of photos, such as ones with cats. This kind of neural network often picks up information from the pixels in the photographs it collects. It has the ability to categorise sets of pixels that are typical of cat traits, with sets like claws, ears, and eyes indicating the presence of a cat in a picture. The fundamental building block of the brain is a brain cell, often known as a neuron. An artificial neuron or perceptron was created after being inspired by a neuron. Dendrites are employed by biological neurons to receive inputs. A perceptron operates similarly, taking in a variety of inputs, applying a variety of tr

What distinguishes supervised from unsupervised machine learning?

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  What is supervised learning? The use of labelled datasets distinguishes the machine learning strategy known as supervised learning. These datasets are intended to "supervise" or "train" algorithms to correctly classify data or forecast outcomes. Labelled inputs and outputs allow the model to monitor its precision and improve over time. Supervised learning can be separated into two types of problems when data mining: classification and regression: Using an algorithm, classification issues correctly categories test data into distinct groups, such as distinguishing apples from oranges. Alternately, supervised learning algorithms can be applied in the real world to categories spam in a distinct folder from your email. Common classification techniques include decision trees, support vector machines, random forests, and linear classifiers. Another supervised learning technique that employs an algorithm to comprehend the link between dependent and independent varia

Why is game theory important to AI?

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  Introduction Mathematical game theory is used to simulate how different players will interact strategically in a setting with predetermined rules and consequences. Different areas of artificial intelligence can benefit from the application of game theory: Multi-agent AI systems. Imitation and Reinforcement Learning. Adversary training in Generative Adversarial Networks (GANs). In addition, machinelearning models and many situations in daily life can be described using game theory. A two-person game in which one player challenges the other to locate the best hyper-plane providing him the most tough points to classify can be used to teach a classification technique like SVM (Support Vector Machines). The outcome of the game will then condense into a trade-off between the two players' strategic prowess (eg. how well the fist player was challenging the second one to classify difficult data points and how good was the second player to identify the best decision boundar