Papers that defined the field. Ordered chronologically by era.
Era 1 — Origins (1943–1970)
| Year |
Title |
Authors |
Venue |
Contribution |
| 1943 |
A Logical Calculus of Ideas Immanent in Nervous Activity |
McCulloch & Pitts |
Bull. Math. Biophysics |
First mathematical model of an artificial neuron |
| 1950 |
Computing Machinery and Intelligence |
Alan Turing |
Mind |
Turing test; "Can machines think?" |
| 1958 |
The Perceptron |
Frank Rosenblatt |
Psych. Review |
First neural learning algorithm |
Era 2 — Backpropagation and Foundations (1986–1998)
| Year |
Title |
Authors |
Venue |
Contribution |
| 1986 |
Learning Representations by Back-Propagating Errors |
Rumelhart, Hinton, Williams |
Nature |
Backpropagation — trains multilayer networks |
| 1997 |
Long Short-Term Memory |
Hochreiter & Schmidhuber |
Neural Computation |
LSTM — solves vanishing gradient in sequences |
| 1998 |
Gradient-Based Learning Applied to Document Recognition |
LeCun et al. |
Proc. IEEE |
LeNet-5 — CNN for digit recognition |
Era 3 — Deep Learning Renaissance (2006–2012)
| Year |
Title |
Authors |
Venue |
arXiv |
Contribution |
| 2006 |
A Fast Learning Algorithm for Deep Belief Nets |
Hinton, Osindski, Teh |
Neural Computation |
— |
Deep Belief Networks; catalyzed the revolution |
| 2010 |
Rectified Linear Units Improve RBMs |
Nair & Hinton |
ICML |
— |
ReLU — modern activation standard |
| 2012 |
ImageNet Classification with Deep CNNs (AlexNet) |
Krizhevsky, Sutskever, Hinton |
NIPS |
— |
Won ImageNet by a huge margin; started the DL era |
| 2014 |
Dropout |
Srivastava et al. |
JMLR |
— |
Regularization via random deactivation |
| 2014 |
Batch Normalization |
Ioffe & Szegedy |
ICML |
1502.03167 |
Normalization between layers; speeds up training |
Era 4 — Deep CNNs and Detection (2014–2016)
| Year |
Title |
Authors |
arXiv |
Contribution |
| 2014 |
VGGNet |
Simonyan & Zisserman |
ICLR |
— |
Depth with 3×3 convolutions |
| 2015 |
ResNet |
He et al. |
CVPR |
1512.03385 |
Skip connections — networks with 152+ layers |
| 2014 |
R-CNN |
Girshick et al. |
CVPR |
1311.2524 |
Region-based detection |
| 2015 |
Faster R-CNN |
Ren et al. |
NIPS |
1506.01497 |
Region Proposal Network; real-time detection |
| 2016 |
YOLO |
Redmon et al. |
CVPR |
1506.02640 |
Single-pass detection; 45 FPS |
Era 5 — Sequences, Attention and Embeddings (2013–2017)
| Year |
Title |
Authors |
arXiv |
Contribution |
| 2013 |
Word2Vec |
Mikolov et al. |
ICLR |
— |
Efficient word embeddings |
| 2014 |
GloVe |
Pennington, Socher, Manning |
EMNLP |
— |
Global matrix factorization + local context |
| 2014 |
Seq2Seq |
Sutskever, Vinyals, Le |
NIPS |
1409.3215 |
Encoder-decoder with LSTMs; basis of NMT |
| 2014 |
Neural MT with Attention |
Bahdanau, Cho, Bengio |
ICLR |
1409.0473 |
Attention mechanism — the model focuses on what is relevant |
| 2018 |
ELMo |
Peters et al. |
NAACL |
1802.05365 |
Bidirectional contextualized embeddings |
Era 6 — Generative Models (2013–2020)
| Year |
Title |
Authors |
arXiv |
Contribution |
| 2013 |
VAE |
Kingma & Welling |
ICLR |
1312.6114 |
Probabilistic variational autoencoders |
| 2014 |
GAN |
Goodfellow et al. |
NIPS |
1406.2661 |
Adversarial networks — realistic generation |
| 2015 |
DCGAN |
Radford, Metz, Chintala |
ICLR |
1511.06434 |
Practical convolutional GANs for images |
| 2020 |
DDPM |
Ho, Jain, Abbeel |
NIPS |
2006.11239 |
Probabilistic diffusion — basis of Stable Diffusion |
| 2021 |
Score-Based SDEs |
Song et al. |
ICLR |
2011.13456 |
Unified framework for score-based models |
| Year |
Title |
Authors |
arXiv |
Contribution |
| 2017 |
Attention Is All You Need |
Vaswani et al. |
NIPS |
1706.03762 |
The Transformer — basis of every modern LLM |
| 2018 |
BERT |
Devlin et al. |
NAACL |
1810.04805 |
Bidirectional pre-training; SOTA on 11 NLU tasks |
| 2018 |
GPT-1 |
Radford et al. |
OpenAI |
— |
Generative pre-training — transfer learning in NLP |
| 2019 |
GPT-2 |
Radford et al. |
OpenAI |
— |
1.5B params; zero-shot multitask |
| 2020 |
GPT-3 |
Brown et al. |
NIPS |
2005.14165 |
175B; in-context learning without gradient updates |
| 2020 |
Scaling Laws |
Kaplan et al. |
OpenAI |
2001.08361 |
Power-laws between scale, compute and data |
| 2022 |
Chinchilla |
Hoffmann et al. |
DeepMind |
2203.15556 |
Compute optimal: equal scaling of model and data |
| Year |
Title |
Authors |
arXiv |
Contribution |
| 2020 |
ViT |
Dosovitskiy et al. |
ICLR |
2010.11929 |
Pure Transformer for vision; image patches |
| 2021 |
Swin Transformer |
Liu et al. |
ICCV |
2103.14030 |
Hierarchical ViT with shifted windows; SOTA detection |
| 2021 |
CLIP |
Radford et al. |
ICML |
— |
Contrastive image-text alignment; zero-shot |
Era 9 — Reinforcement Learning (1988–2017)
| Year |
Title |
Authors |
Venue |
Contribution |
| 1988 |
TD Learning |
Sutton |
Machine Learning |
Temporal difference — basis of modern RL |
| 1992 |
Q-Learning |
Watkins & Dayan |
Machine Learning |
Off-policy TD; foundation of DQN |
| 2013 |
DQN |
Mnih et al. |
NIPS |
Deep Q-Networks; Atari at human performance |
| 2015 |
DQN Nature |
Mnih et al. |
Nature |
Experience replay + target networks |
| 2016 |
AlphaGo |
Silver et al. |
Nature |
MCTS + neural networks; defeats world champion |
| 2017 |
AlphaZero |
Silver et al. |
Science |
Self-play RL; SOTA in chess, shogi, go |
| 2017 |
PPO |
Schulman et al. |
ICLR |
1707.06347 |
Stable policy gradient; standard in modern RL |
Era 10 — Alignment and Post-Training (2022–2023)
| Year |
Title |
Authors |
arXiv |
Contribution |
| 2022 |
Chain-of-Thought Prompting |
Wei et al. |
NIPS |
2201.11903 |
CoT dramatically improves reasoning |
| 2022 |
Zero-Shot Reasoners |
Kojima et al. |
NIPS |
2205.11916 |
"Let's think step by step" — zero-shot reasoning |
| 2022 |
RLHF (InstructGPT) |
Ouyang et al. |
NIPS |
2203.02155 |
Training with human feedback; basis of ChatGPT |
| 2022 |
Constitutional AI |
Bai et al. |
Anthropic |
2212.08073 |
AI feedback replaces human labels in alignment |
| 2023 |
DPO |
Rafailov et al. |
NIPS |
2305.18290 |
Direct Preference Optimization — no reward model |
| 2023 |
ReAct |
Yao et al. |
ICLR |
2210.03629 |
Reasoning + action in LLM agents |
| 2023 |
Let's Verify Step by Step |
Lightman et al. |
ICLR |
2305.20050 |
Process Reward Models for mathematics |
Era 11 — Reasoning and Open-Source Frontier (2024–2026)
| Year |
Title |
Authors |
arXiv |
Contribution |
| 2024 |
Qwen2.5-Coder |
Hui et al. |
Alibaba |
2409.12186 |
Complete recipe for code models |
| 2024 |
SWE-bench |
Jimenez et al. |
ICLR |
2310.06770 |
Benchmark of real GitHub issues |
| 2024 |
FIM |
Bavarian et al. |
OpenAI |
2207.14255 |
Fill-in-the-Middle — training for code completion |
| 2024 |
DeepSeekMath/GRPO |
DeepSeek |
DeepSeek |
2402.03300 |
GRPO — RL without a critic model |
| 2025 |
DeepSeek-R1 |
DeepSeek |
DeepSeek |
2501.12948 |
Pure RLVR; reasoning rivaling o1 |
| 2025 |
TurboQuant |
Zandieh et al. |
ICLR 2026 |
2504.19874 |
6× KV cache compaction, 8× speedup on H100 |
| 2025 |
EAGLE-3 |
SafeAILab |
NeurIPS |
2503.01840 |
Speculative decoding 2–6× faster |
| 2026 |
DeepSeek-V4 |
DeepSeek |
Technical report Apr/2026 |
— |
1M context; CSA reduces KV cache 10×; 80.6% SWE-bench; MIT |
| 2026 |
From AGI to ASI |
Legg, Hutter et al. (DeepMind) |
2606.12683 |
Defines AGIASIAIXI; 4 paths to superintelligence + 6 frictions + physical limits. See agi-asi-superintelligence.md |
Compression and Efficiency Papers
| Year |
Title |
arXiv |
Contribution |
| 2015 |
Deep Compression |
Han et al. |
ICLR |
Pruning + quantization + Huffman; 35-49× lossless |
| 2015 |
Knowledge Distillation |
Hinton et al. |
NIPS Workshop |
Teacher-student; compresses large models |
| 2022 |
GPTQ |
Frantar et al. |
ICLR |
2210.17323 |
3-4 bit post-training quantization for LLMs |
| 2023 |
AWQ |
Lin et al. |
MLSys 2024 |
2306.00978 |
Activation-aware weight quantization |
| 2023 |
QLoRA |
Dettmers et al. |
NIPS |
2305.14314 |
Fine-tuning with 4-bit; 70B on an RTX 3090 |
| 2024 |
BitNet b1.58 |
Ma et al. |
— |
2402.17764 |
Ternary weights {-1,0,1}; 2.71× faster |