
Explore AI security challenges, including evasion, poisoning, and model inversion, and examine vulnerabilities like overfitting and transferability. Learn defenses such as adversarial training, regularization, and anomaly detection.
Trace the evolution of adversarial attacks from simple evasion to poisoning and model inversion, and examine their impact on AI security, robustness, and defenses.
Set up a stable, secure AML environment with GPUs, RAM, and SSD. Install Python, TensorFlow, PyTorch, Jupyter notebooks, and adversarial libraries like Foolbox and ART.
Explore white box and black box attacks, poisoning, and model inversion. Learn advanced methods like FGSM, PGD, Carlini and Wagner attack, and GAN, plus transferability.
Demonstrate crafting evasion attacks on csv-trained models by building a decision tree with the iris data set, then perturb petal length to reduce accuracy from 100% to 0.83.
Train a CNN on MNIST and generate adversarial examples with FGSM to reveal how small perturbations fool image classification models, underscoring the need for robust defenses.
Explore defense strategies against adversarial threats, including adversarial training, input pre-processing and detection, defensive distillation, and hybrid approaches, with practical applications to CSV and image data models.
Build a neural network with the iris data set, craft FGSM adversarial examples, and apply adversarial training to boost robustness in CSV-trained models.
Apply defense techniques to image-trained models by generating adversarial examples with FGSM, training with adversarial data through adversarial training, and using input preprocessing to mitigate attacks on MNIST.
Explore transferability of adversarial examples across models and domains, including intramodal, intermodal, and cross-domain cases, and examine practical defenses like adversarial training, ensembles, and randomization.
Explore how generative adversarial networks power adversarial machine learning by producing adversarial examples for attacks. Enable defenses through adversarial data augmentation and robust detection.
Explore transferable adversarial examples between a source and target model, and apply adversarial training to defend a CNN trained on mNIST data, improving robustness to adversarial attacks.
Train and evaluate a GAN to generate adversarial examples from the mNIST dataset, visualizing real and adversarial images side by side while exploring transferability and defense strategies.
Analyze real-world adversarial attacks across healthcare, autonomous systems, finance, and cybersecurity. Examine their impact on diagnosis, traffic-sign recognition, fraud detection, and malware defense, and discuss ethical implications and robust defenses.
Examine the dual-use nature of adversarial machine learning and the ethical implications of deployment. Align research with strict guidelines to ensure transparency, accountability, fairness, and responsible defense.
Analyze a real-world medical chest x-ray classifier under adversarial attacks, generate PGD adversarial examples, retrain with adversarial training, and propose defenses including multi-attack adversarial training, input pre-processing, ensembles, and regularization.
Explore adversarial machine learning in the quantum era, revealing quantum enhanced attacks and defenses, including post-quantum cryptography and quantum randomization to protect AI in cryptography, healthcare, and autonomous vehicles.
Explore AI robustness in edge computing and resource-constrained devices, detailing evasion and poisoning attacks, lightweight defenses like adversarial training and quantization, and future cloud-edge hybrid strategies.
Explore adversarial attacks on zero-shot learning and defenses that protect semantic embeddings, including adversarial training, robust embeddings, and autoencoder filtering, for robust cross-modal AI.
Explore adversarial attacks and defenses in reinforcement learning, including perturbation, reward manipulation, poisoning, and exploration-exploitation attacks, and learn robust strategies like adversarial training and safe exploration.
This comprehensive course on Adversarial Machine Learning (AML) offers a deep dive into the complex world of AI security, teaching you the sophisticated techniques used for both attacking and defending machine learning models. Throughout this course, you will explore the critical aspects of adversarial attacks, including their types, evolution, and the methodologies used to craft them, with a special focus on CSV and image data.
Starting with an introduction to the fundamental challenges in AI security, the course guides you through the various phases of setting up a robust adversarial testing environment. You will gain hands-on experience in simulating adversarial attacks on models trained with different data types and learn how to implement effective defenses to protect these models.
The curriculum includes detailed practical sessions where you will craft evasion attacks, analyze the impact of these attacks on model performance, and apply cutting-edge defense mechanisms. The course also covers advanced topics such as the transferability of adversarial examples and the use of Generative Adversarial Networks (GANs) in AML practices.
By the end of this course, you will not only understand the technical aspects of AML but also appreciate the ethical considerations in deploying these strategies. This course is ideal for cybersecurity professionals, data scientists, AI researchers, and anyone interested in enhancing the security and integrity of machine learning systems.