From a fly connectome to a digital fly: what the experiments show

What the 2026 male-CNS map reveals, what experiments test, and what digital-fly demos add
From a fly connectome to a digital fly: what the experiments show cover

The 2026 male fruit fly connectome links brain and nerve cord in one open map. New studies compare male and female circuits, trace vision and taste pathways, and test social-behavior predictions. Here is how those results differ from digital-fly game demos.

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Typed Decision Models: Jev and Laya in Agentic AI

How bounded questions turn text into usable probabilities, and where this approach fits beside LLMs
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Some AI tasks need a bounded judgment, not generated prose. Jev and Laya illustrate how decision models turn textual state and defined answer spaces into probability distributions. This guide explains the shared pattern, where the implementations differ, what their benchmarks establish, and how to evaluate them in an agentic workflow.

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Atlas: How one model turns images into controllable 3D worlds

A practical introduction to World Labs' multimodal world model for generation, reconstruction, and simulation
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Atlas combines text, images, camera poses, and depth in a shared spatial context. This guide explains what that means, how its autoregressive diffusion architecture works, what World Labs has demonstrated, and what remains unknown.

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Dragon Hatchling: A careful guide to BDH's graph-inspired state-space model

What the architecture changes, what the experiments establish, and where the brain analogy stops
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Dragon Hatchling connects a high-dimensional linear-attention state-space model to local graph dynamics. This guide explains the recurrence, the qualified relationship between BDH and BDH-GPU, the Europarl scaling results, and the limits of the paper's claims about interpretability, long context, model composition, and biological plausibility.

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I-JEPA: Learning from images by predicting missing features

A practical guide to "Self-Supervised Learning from Images with a Joint-Embedding Predictive Architecture"
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I-JEPA learns visual features by predicting the representations of hidden image regions, rather than reconstructing their pixels. This guide explains the context encoder, target encoder, predictor, and masking strategy, then examines what the paper's accuracy and efficiency results actually measure.

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QLoRA: How to fine-tune large language models with less memory

A practical guide to "QLoRA: Efficient Finetuning of Quantized LLMs"
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QLoRA makes large language models cheaper to fine-tune by storing the base model in 4 bits and training small, higher-precision adapters. This guide explains LoRA, NormalFloat, double quantization, and paged optimizers, then puts the Guanaco chatbot results in context.

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DINOv2: How self-supervised visual features transfer across tasks

A practical guide to "DINOv2: Learning Robust Visual Features without Supervision"
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DINOv2 trains Vision Transformer encoders on 142 million curated images without using labels or captions in its pretraining objective. This guide explains how image-level self-distillation, masked patch prediction, feature-spreading regularization, data curation, and distillation combine to produce features that transfer across classification, retrieval, segmentation, and depth estimation.

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CoLT5: Reading long documents with selective computation

A practical guide to "CoLT5: Faster Long-Range Transformers with Conditional Computation"
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CoLT5 processes every input token with lightweight layers and gives selected tokens additional, higher-capacity computation. This guide explains its learned routing, light and heavy branches, faster decoding, and experiments with inputs up to 64k tokens.

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LoRA: Fine-tuning a model by learning a small update

A practical guide to "LoRA: Low-Rank Adaptation of Large Language Models"
LoRA: Fine-tuning a model by learning a small update cover

LoRA adapts a pretrained model by training small, low-rank updates while keeping its original weights fixed. This guide explains the two-matrix construction, the memory and storage savings, the conditions for merging adapters, and the connection to QLoRA.

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🎭 Masked autoencoder (MAE) for visual representation learning. From the author of ResNet.

"Masked Autoencoders Are Scalable Vision Learners" - Research Paper Explained
🎭 Masked autoencoder (MAE) for visual representation learning. From the author of ResNet. cover

A masked autoencoder (MAE) learns visual representations by reconstructing missing image patches from a small visible subset. It divides an image into regular non-overlapping patches, samples patches uniformly without replacement, removes the masked patches before the encoder, and inserts learned mask tokens only for the lightweight decoder. With a 75% masking ratio, the encoder processes just 25% of the patches. This asymmetric design reduces training time and memory, enabling ViT-Large and ViT-Huge models to scale on ImageNet-1K. A ViT-Huge model pretrained for 1600 epochs and fine-tuned at 448-pixel resolution reaches 87.8% ImageNet-1K top-1 accuracy.

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