UNIT-I: Artificial Neural Networks
2-Mark Questions:
1. What is an Artificial Neuron?
2. Define a Perceptron.
3. What is the role of the activation function in a neuron?
4. What is the difference between supervised and unsupervised learning?
5. What is the purpose of the backpropagation algorithm?
 6. What is the key difference between a single-layer and a multi-layer
perceptron?
7. What are the limitations of a single-layer perceptron?
8. What is the role of the bias term in a neuron?
 9. What is the difference between Hebbian learning and competitive
learning?
10. What are the applications of Hopfield networks?
5-Mark Questions:
   1. Explain the architecture and working principle of a single-layer
      perceptron.
   2. Discuss its limitations and how they are addressed by multi-layer
      perceptrons.
   3. Describe the backpropagation algorithm in detail.
   4. Explain the steps involved in training a feedforward neural network
      using backpropagation.
   5. Discuss the concept of associative memory.
   6. Explain the working principle of Hopfield networks and their
      applications in pattern recognition.
   7. Compare and contrast the characteristics of supervised and
      unsupervised learning. Provide examples of real-world applications for
      each.
   8. Explain the concept of the adaptive linear neuron (Adaline) and its
      relationship to the perceptron.
   9. Discuss the advantages and disadvantages of Adaline.
UNIT-II: Unsupervised Learning Network
2-Mark Questions:
1. What are competitive learning networks?
2. How does the Kohonen self-organizing map (SOM) work?
3. What is the purpose of learning vector quantization (LVQ)?
4. What is the difference between SOM and LVQ?
5. What is the principle of adaptive resonance theory (ART)?
6. What is the role of vigilance parameter in ART networks?
7. What are the applications of self-organizing maps?
8. How does Maxnet work?
9. What is the purpose of the Hamming network?
10. What are the limitations of competitive learning?
5-Mark Questions:
1. Explain the architecture and learning algorithm of the Kohonen self-
   organizing map.
2. Discuss its applications in data visualization and clustering.
3. Describe the learning vector quantization (LVQ) algorithm.
4. Explain how it differs from the SOM and how it can be used for
   classification.
5. Discuss the principles of adaptive resonance theory (ART).
6. Explain the architecture and learning process of an ART network.
7. Compare and contrast the characteristics of competitive learning
   networks, such as Maxnet, Hamming network, and self-organizing maps.
8. Explain the role of unsupervised learning in artificial intelligence.
9. Discuss the applications of unsupervised learning techniques in areas
   such as anomaly detection and dimensionality reduction.
UNIT-III: Introduction to Deep Learning
2-Mark Questions:
1. What is deep learning?
2. What are deep neural networks?
3. What are the key characteristics of deep learning models?
4. What is the role of representation learning in deep learning?
5. What are the different types of deep neural networks (e.g., CNN, RNN,
   LSTM)?
6. What are the challenges of training deep neural networks?
7. What is the role of activation functions in deep learning?
8. What is the difference between shallow and deep neural networks?
9. What are the applications of deep learning?
10. What are the historical trends in deep learning research?
5-Mark Questions:
  1. Discuss the key concepts and historical trends in deep learning
     research.
  2. Explain the architecture and working principle of deep feedforward
     networks.
  3. Discuss their applications in classification and regression.
  4. Discuss the challenges of training deep neural networks, such as
     vanishing/exploding gradients and overfitting.
  5. Explain techniques to address these challenges.
  6. Compare and contrast different types of deep neural networks, such as
     convolutional neural networks (CNNs), recurrent neural networks
     (RNNs), and long short-term memory (LSTM) networks.
  7. Discuss the impact of deep learning on various fields, such as
     computer vision, natural language processing, and artificial
     intelligence.