Concept Map
Concepts
- Activation Functions — neural-networks
- Activation Patching and Causal Tracing — alignment
- Agent Evaluation and Benchmarks — agents
- Agentic Loops and Scaffolding — agents
- AI Evaluations and Red-Teaming — alignment
- AI for Scientific Discovery — frontier
- AI in Science: AlphaFold — history
- AI Risk Frameworks — alignment
- Alan Turing and the Origins of AI — history
- AlexNet — computer-vision
- AlexNet and the Deep Learning Breakthrough — history
- ALiBi Position Encoding — transformers
- AlphaGo and Game-Playing AI — history
- Anomaly Detection — classical-ml
- Anthropic's Approach to AI Safety — alignment
- Automatic Differentiation — neural-networks
- Backpropagation — neural-networks
- Bag of Words and TF-IDF — nlp
- Bahdanau Attention — transformers
- Batch Normalization — neural-networks
- Bayesian Optimization — classical-ml
- Benchmark Evaluation of LLMs — llms
- Benign Overfitting — theory
- BERT: Bidirectional Encoder Representations — transformers
- Bias-Variance Tradeoff — theory
- Byte-Pair Encoding — llms
- Chain-of-Thought Prompting — llms
- Chain-of-Thought Reasoning — agents
- Chinchilla and Optimal Compute — llms
- Chunking Strategies for RAG — agents
- Circuits in Neural Networks — alignment
- Classifier-Free Guidance — multimodal
- Claude Shannon and Information Theory — history
- CLIP: Contrastive Language-Image Pre-Training — multimodal
- Constitutional AI — llms
- Continuous Learning and Catastrophic Forgetting — frontier
- Contrastive Learning in Vision — computer-vision
- Convolutional Filters and Feature Maps — computer-vision
- Convolutional Neural Networks — computer-vision
- Cross-Attention — transformers
- DALL-E and Text-to-Image Generation — multimodal
- Data Augmentation — neural-networks
- DBSCAN Clustering — classical-ml
- DDIM: Denoising Diffusion Implicit Models — multimodal
- Debate as an Alignment Technique — alignment
- Deceptive Alignment — alignment
- Decision Trees — classical-ml
- Denoising Diffusion Probabilistic Models — multimodal
- Dense Retrieval and Bi-Encoders — agents
- DINO: Self-Supervised Vision Features — computer-vision
- Direct Preference Optimization (DPO) — llms
- Double Descent Phenomenon — theory
- Dreamer: Learning World Models — frontier
- Dropout Regularization — neural-networks
- Early Stopping — neural-networks
- EfficientNet and Compound Scaling — computer-vision
- Eigenvalues and Eigenvectors — foundations
- ELMo: Contextual Word Embeddings — nlp
- Emergent Capabilities in Large Models — llms
- Encoder-Decoder Architectures — neural-networks
- Episodic and Semantic Memory for Agents — agents
- FastText — nlp
- FlashAttention — transformers
- Full Fine-Tuning vs Parameter-Efficient Fine-Tuning — efficiency
- Gated Recurrent Units (GRU) — neural-networks
- Gaussian Mixture Models — classical-ml
- Gaussian Processes — classical-ml
- GELU Activation Function — neural-networks
- Generalization Bounds and PAC-Bayes — theory
- Generative Adversarial Networks — multimodal
- Geoffrey Hinton: The Godfather of Deep Learning — history
- GGUF and llama.cpp — efficiency
- GloVe: Global Vectors for Word Representation — nlp
- GPT-2: Language Models as Unsupervised Learners — llms
- GPT-3 and In-Context Learning — llms
- GPT-4V and Vision-Language Models — multimodal
- GPT: Autoregressive Language Models — transformers
- Gradient Boosting — classical-ml
- IA³: Fewer Parameters Than LoRA — efficiency
- ImageNet and Benchmark Culture — computer-vision
- In-Context Learning Theory — llms
- InceptionNet and GoogLeNet — computer-vision
- Inference Serving Systems — efficiency
- Information Bottleneck Theory — theory
- Inner Alignment vs Outer Alignment — alignment
- Instruction Tuning — llms
- INT4 and GPTQ Quantization — efficiency
- INT8 Quantization — efficiency
- John McCarthy and Symbolic AI — history
- K-Means Clustering — classical-ml
- K-Nearest Neighbors — classical-ml
- Key-Value Cache — transformers
- Knowledge Distillation — efficiency
- KV Cache Optimization — efficiency
- LangChain and LangGraph — agents
- Language Model Pretraining — llms
- Layer Normalization — neural-networks
- Linear Regression — classical-ml
- Logistic Regression — classical-ml
- Long Context and Memory-Augmented LLMs — frontier
- Long Short-Term Memory (LSTM) — neural-networks
- Low-Rank Adaptation (LoRA) — efficiency
- Marvin Minsky and the Perceptron Controversy — history
- Masked Language Modeling — transformers
- Mechanistic Interpretability — alignment
- Mixture of Experts at Scale — frontier
- Mixture of Experts for LLMs — llms
- MMLU and Standard AI Benchmarks — alignment
- Mode Collapse in GANs — multimodal
- Model Cards and Responsible Disclosure — alignment
- Model Context Protocol (MCP) — agents
- Model Pruning — efficiency
- Model Quantization — efficiency
- Monte Carlo Methods — foundations
- Multi-Agent Systems — agents
- Multi-Head Attention — transformers
- Multi-Layer Perceptrons — neural-networks
- Multimodal Embeddings — multimodal
- Multimodal Reasoning at Frontier — frontier
- Naive Bayes Classifier — classical-ml
- Named Entity Recognition — nlp
- Neural Tangent Kernel — neural-networks
- Neural Tangent Kernel Theory — theory
- Neuromorphic Computing — frontier
- Neurosymbolic AI — frontier
- No Free Lunch Theorem — theory
- Object Detection: Faster R-CNN — computer-vision
- Object Detection: YOLO — computer-vision
- ONNX and TensorRT — efficiency
- Open Problems in AI Alignment — frontier
- Open Source LLMs: Llama, Mistral, Phi — llms
- OpenAI o1 and o3: Chain-of-Thought at Scale — frontier
- Overfitting and Generalization — theory
- PAC Learning Framework — theory
- Paged Attention and vLLM — efficiency
- Pipeline Parallelism — efficiency
- Pooling Layers — computer-vision
- Positional Encoding — transformers
- Principal Component Analysis — classical-ml
- Prompt Engineering — agents
- Proximal Policy Optimization in RLHF — llms
- QLoRA: Efficient Fine-Tuning — efficiency
- Rademacher Complexity — theory
- Random Forests — classical-ml
- ReAct: Reasoning and Acting — agents
- Reasoning Models and Test-Time Compute — frontier
- Recommendation Systems — classical-ml
- Recurrent Neural Networks — neural-networks
- ReLU and Its Variants — neural-networks
- Reranking in RAG Pipelines — agents
- Residual Connections and ResNets — neural-networks
- ResNet: Deep Residual Learning — computer-vision
- Retrieval-Augmented Generation (RAG) — agents
- Reward Hacking and Goodhart's Law — alignment
- Reward Modeling — llms
- Ridge and Lasso Regression — classical-ml
- RLHF: Reinforcement Learning from Human Feedback — llms
- RMS Normalization — neural-networks
- Robotics Foundation Models: RT-2 and Pi-0 — frontier
- Rotary Position Embedding (RoPE) — transformers
- Scalable Oversight — alignment
- Scaled Dot-Product Attention — transformers
- Scaling Laws for Neural Language Models — llms
- Score Matching and Score-Based Generative Models — multimodal
- Self-Attention — transformers
- Semantic Segmentation — computer-vision
- Sentiment Analysis — nlp
- Sequence-to-Sequence Models — nlp
- Singular Value Decomposition — foundations
- Sliding Window Attention — transformers
- Sparse Autoencoders for Interpretability — alignment
- Speculative Decoding — llms
- Stable Diffusion Architecture — multimodal
- Superposition in Neural Networks — alignment
- Support Vector Machines — classical-ml
- t-SNE — classical-ml
- T5: Text-to-Text Transfer Transformer — transformers
- Tensor Parallelism — efficiency
- Text-to-Speech with Neural Models — multimodal
- The Alignment Problem — alignment
- The Attention Mechanism — transformers
- The Bias-Variance Decomposition — theory
- The Bitter Lesson — history
- The Dartmouth Conference 1956 — history
- The Decoder-Only Transformer — transformers
- The EM Algorithm — classical-ml
- The Encoder-Only Transformer — transformers
- The First AI Winter — history
- The GPT Moment — history
- The History of Reinforcement Learning — history
- The ImageNet Revolution — history
- The Kernel Trick — classical-ml
- The Perceptron — neural-networks
- The Perceptron and Early Neural Networks — history
- The Rise of Expert Systems — history
- The Second AI Winter — history
- The Transformer Architecture — transformers
- The Turing Test — history
- The Vanishing Gradient Problem — neural-networks
- Tokenization: BPE and SentencePiece — llms
- Tool Use and Function Calling — agents
- UMAP — classical-ml
- Universal Approximation Theorem — neural-networks
- Variational Autoencoders — multimodal
- VC Dimension — theory
- VGGNet — computer-vision
- Video Generation Models — multimodal
- Vision Transformer (ViT) — computer-vision
- Weight Decay and L2 Regularization — neural-networks
- Weight Initialization — neural-networks
- What Comes After Transformers? — frontier
- What is a Large Language Model? — llms
- Whisper: Robust Speech Recognition — multimodal
- Word Embeddings — nlp
- Word2Vec — nlp
- World Models for Planning — frontier
- XGBoost — classical-ml
- Yann LeCun and Convolutional Networks — history
- Yoshua Bengio and Deep Representation Learning — history
- Zero-Shot and Few-Shot Prompting — agents