Paper Reading Ladder Frontier LLMs
This is the reading sequence for the frontier LLM architecture sphere. Prefer reading papers actively: reconstruct the mechanism, write down the bottleneck, and identify what experiment would falsify the claim.
Level 0: Orientation
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- Why: establishes attention, multi-head attention, residual blocks, and sequence modeling without recurrence.
- Pair with: Transformer Block Anatomy.
Language Models are Few-Shot Learners
- Why: GPT-3 made scale, in-context learning, and few-shot prompting central.
- Pair with: Scaling Laws and Compute Optimal Training.
Level 1: Scaling
Scaling Laws for Neural Language Models
- Why: introduces the empirical scaling-law mindset.
Training Compute-Optimal Large Language Models
- Why: Chinchilla reframed compute-optimal allocation between parameters and tokens.
PaLM: Scaling Language Modeling with Pathways
- Why: useful example of large-scale training, infrastructure, and evaluation.
Level 2: Modern Transformer Ingredients
RoFormer: Enhanced Transformer with Rotary Position Embedding
- Why: RoPE is a standard positional method in many modern LLMs.
Root Mean Square Layer Normalization
- Why: RMSNorm is common in modern LLM blocks.
GLU Variants Improve Transformer
- Why: SwiGLU-style gated MLPs are a standard modern ingredient.
Fast Transformer Decoding: One Write-Head is All You Need
- Why: multi-query attention explains a key inference-efficiency tradeoff.
GQA: Training Generalized Multi-Query Transformer Models from Multi-Head Checkpoints
- Why: grouped-query attention is common in modern serving-oriented LLMs.
- Why: exact attention can be much faster when designed around GPU memory hierarchy.
Level 3: Optimization And Systems
AdamW: Decoupled Weight Decay Regularization
- Why: optimizer details matter for stable large-scale training.
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- Why: model parallelism made multi-billion-parameter transformer training practical.
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- Why: optimizer/gradient/parameter partitioning is central to memory-efficient large-scale training.
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- Why: hyperparameter transfer is crucial if small-scale experiments are supposed to predict large-scale behavior.
Level 4: Open And Frontier-Style Model Reports
LLaMA: Open and Efficient Foundation Language Models
- Why: key open model lineage and efficient training recipe.
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- Why: modern open frontier-style report with pretraining and post-training details.
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- Why: illustrates what a restricted frontier model report looks like and what it omits.
Level 5: MoE
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- Why: large-scale conditional computation.
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- Why: simple top-1 MoE routing at scale.
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- Why: open sparse MoE language model example.
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- Why: modern high-performance MoE training report.
Level 6: Long Context And Alternatives
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- Why: simple positional bias for length extrapolation.
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- Why: selective state-space sequence model challenging attention in some regimes.
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- Why: recurrent-style alternative inspired by transformer behavior.
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- Why: retention mechanism as transformer successor proposal.
Level 7: Post-Training
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- Why: canonical instruction following with human feedback.
Training a Helpful and Harmless Assistant with RLHF
- Why: helpfulness and harmlessness training setup.
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- Why: AI feedback and principle-guided alignment.
Direct Preference Optimization
- Why: simpler preference optimization objective.
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- Why: public reasoning-focused RL training report.
Level 8: Evaluation
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- Why: broad multitask benchmark and a common model-report staple.
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- Why: broad benchmark suite for difficult language model behaviors.
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- Why: evaluation as a holistic measurement discipline.
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- Why: grade-school math reasoning and verifier framing.
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- Why: code-generation evaluation and pass@k style metrics.
Paper Note Template
For each paper, write:
# Paper: Title
## Claim
## Bottleneck Attacked
## Mechanism
## Experiment Setup
## Main Evidence
## Missing Baselines
## Scaling Guess
## Failure Modes
## What I Would Try Next