INT8 Quantization: Absmax
Covers INT8 weight quantization with absmax and smooth quantization techniques. Solve the outlier problem in large language models.
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Covers INT8 weight quantization with absmax and smooth quantization techniques. Solve the outlier problem in large language models.
Detect and remove personal information from LLM training data with regex, named entity recognition, and hybrid privacy pipelines.
Explains how toxicity classifiers work, how to calibrate thresholds for pretraining data.
Filter low-quality text from web corpora using heuristic rules, perplexity scoring, and classifier-based methods with tunable thresholds.
Explains how weight quantization maps floating-point values to integers, reducing LLM memory by 4x. Topics include scale, zero-point.
Explains how MinHash compresses documents into compact signatures that estimate Jaccard similarity, enabling near-duplicate detection.
Explains how language identification works in NLP pipelines. Topics include n-gram models, FastText LID, code-switching, confidence thresholds.
Practical reporting guidelines, summary of key concepts, test selection parameters table, multiple comparison corrections table.
Extract clean text from HTML and PDFs for LLM training data. Topics include boilerplate removal, text density algorithms, Trafilatura.
Covers KV cache compression techniques including eviction strategies, attention sinks, the H2O algorithm, and INT8 quantization for efficient LLM inference.
Control false positives across multiple hypothesis tests with FWER, FDR, Bonferroni, Holm, and Benjamini-Hochberg procedures.
Explains how web crawlers discover and download internet content at scale, covering Common Crawl architecture, robots.txt compliance, politeness policies.
Benchmark scores can mislead when test data leaks, metrics saturate, or systems game proxies. Covers contamination, brittleness, Goodhart's Law, and mitigation.
Explains how PagedAttention uses virtual memory paging to eliminate KV cache fragmentation, enabling 5x better memory utilization in LLM serving systems.
Covers transaction cost analysis and market impact modeling. Estimate spread, slippage, and liquidity to build realistic backtests and execution strategies.
Cohen's d measures effect size separately from statistical significance. Covers practical significance and why small p-values can describe small effects.
Build rigorous NLP benchmarks: task definition, dataset collection, annotation guidelines, inter-annotator agreement, contamination detection.
Calculate KV cache memory requirements for transformer models. Topics include batch size, context length, GQA optimization, and GPU deployment planning.
Choose sample size and minimum detectable effect with power analysis. Covers underpowered studies, statistical sensitivity, and design tradeoffs.
Explains how KV cache eliminates redundant attention computations in transformers. Topics include memory requirements, cache structure.
Understanding false positives, false negatives, statistical power, and the tradeoff between error types. Balance Type I and Type II errors in study design.
Explains how multimodal AI powers document understanding, medical imaging diagnostics, video analysis, and complex reasoning tasks across real-world domains.
Covers iterative alignment for LLMs with online DPO, rolling references, Constitutional AI, and SPIN. Build self-improving models beyond single-shot training.
Covers diffusion models from the DDPM objective to latent diffusion, classifier-free guidance, image editing techniques, ControlNet, and FID evaluation metrics.
One-way ANOVA, post-hoc tests, assumptions, and when to use ANOVA. Compare means across three or more groups while controlling Type I error rates.
Covers RLAIF and Constitutional AI for scalable model alignment. Use AI feedback, design constitutions, and train reward models effectively.
Extract trading signals from alternative data using NLP. Topics include sentiment analysis, text processing, and building news-based trading systems.
Covers four core image understanding tasks: visual question answering, image captioning, visual grounding, and scene understanding.
Why attention weights fail as explanations, how manipulation studies expose their limits, and what gradient-based methods offer as more faithful alternatives.
F-distribution, F-test for comparing variances, F-test in regression, and nested model comparison.
Multimodal models align text, images, and other inputs in shared embedding spaces. Covers contrastive loss, dual encoders, joint encoders, and tradeoffs.
Build safe autonomous agents using action constraints, sandboxing, real-time monitoring, prompt injection defenses, and human-in-the-loop intervention patterns.
Explains how multi-agent AI systems coordinate through topologies, communication protocols, role assignment.
DPO variants include IPO, KTO, ORPO, and cDPO. Compare their objectives, data requirements, computational costs, and suitable alignment tasks.
Build ML-driven trading strategies covering return prediction, sentiment analysis, alternative data integration, and reinforcement learning for execution.
Covers t-tests including one-sample, two-sample (pooled and Welch), paired tests, assumptions, and decision framework.
Implement Direct Preference Optimization in PyTorch. Topics include preference data formatting, loss computation, training loops.
Covers supervised ML algorithms for trading: linear models, random forests, gradient boosting.
Mathematical equivalence between confidence intervals and hypothesis tests, test assumptions (independence, normality, equal variances).
Covers z-tests including one-sample, two-sample, and proportion tests. Topics include when to use z-tests, how to calculate test statistics.
Explains how LLM agents plan, decompose tasks, execute multi-step goals, and recover from failures using architectures like ReWOO, Tree-of-Thought.
Derive the DPO loss function from first principles. Explains how the optimal RLHF policy leads to reward reparameterization and direct preference optimization.
Foundation of hypothesis testing covering p-values, null and alternative hypotheses, one-sided vs two-sided tests.
Explains how DPO eliminates reward models from LLM alignment. Topics include the reward-policy duality that enables supervised preference learning.
Explains how KL divergence prevents reward hacking in RLHF by keeping policies close to reference models.
Covers RLHF pipeline with three stages: Supervised Fine-Tuning, Reward Model training, and PPO optimization. Topics include debugging techniques.
Explains how PPO applies to language models. Topics include policy mapping, token action spaces, KL divergence penalties, and advantage estimation for RLHF.
Covers PPO's clipped objective for stable policy updates. Topics include trust regions, GAE advantage estimation.
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