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<feed xmlns="http://www.w3.org/2005/Atom"><title>stacks: new papers</title><id>https://stacks.braintank.ai/</id><link href="https://stacks.braintank.ai/"/><link rel="self" href="https://stacks.braintank.ai/feed.xml"/><updated>2026-11-02T00:00:00Z</updated>
<entry><title>Compact AI model for astronomical spectra works in wavelength, not pixel order</title><id>https://stacks.braintank.ai/d/arxiv-2601.15351.html</id><link href="https://stacks.braintank.ai/d/arxiv-2601.15351.html"/><updated>2026-11-02T00:00:00Z</updated><author><name>braintankAI</name></author><summary>OmniSpectra, a 12.2-million-parameter model pretrained on eight surveys, reads physical wavelengths directly and is reported to beat substantially larger rivals.</summary></entry>
<entry><title>Leaner streaming model picks one voice out of crowded, noisy scenes</title><id>https://stacks.braintank.ai/d/arxiv-2610.32749.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.32749.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A preprint offers a more realistic test for audio-visual voice extraction, plus a streaming model the authors say is far smaller and faster than an existing baseline.</summary></entry>
<entry><title>Benchmark finds AI agents remember conversations but struggle to infer user habits</title><id>https://stacks.braintank.ai/d/arxiv-2610.24520.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.24520.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A test built on hundreds of synthetic sessions finds the best agent memory method answering only about a third of habit questions correctly.</summary></entry>
<entry><title>Robots learn faster by rewinding imagined futures inside a world model</title><id>https://stacks.braintank.ai/d/arxiv-2610.36068.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.36068.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A preprint describes a training method that replays a robot&#x27;s decisions in a learned simulator, tries alternatives, and credits the choices that made the difference.</summary></entry>
<entry><title>Hybrid model predicts car-following on snowy Norwegian highways more accurately</title><id>https://stacks.braintank.ai/d/W7224853653.html</id><link href="https://stacks.braintank.ai/d/W7224853653.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>Researchers combine two physics-based driver models with a Transformer-LSTM network and report lower acceleration errors on Norwegian winter driving data.</summary></entry>
<entry><title>Rewarding how AI searches, not just what it answers, yields sturdier search agents</title><id>https://stacks.braintank.ai/d/W4407785632.html</id><link href="https://stacks.braintank.ai/d/W4407785632.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>Grading the intermediate steps of an AI search agent, rather than only its final answer, produced agents that coped better with unfamiliar tasks, a study reports.</summary></entry>
<entry><title>Single-cell map links rare and common DNA variants to immune gene activity</title><id>https://stacks.braintank.ai/d/W7224109065.html</id><link href="https://stacks.braintank.ai/d/W7224109065.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>Sequencing more than five million immune cells from 1,925 people shows how inherited variation tunes gene expression, often in just one or a few cell types.</summary></entry>
<entry><title>Self-training AI decides for itself when its practice tasks have gone stale</title><id>https://stacks.braintank.ai/d/arxiv-2610.38568.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.38568.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A preprint from Xiaomi Research describes a training loop that watches its own learning signal and swaps in fresh, checkable questions, with no human-labelled data.</summary></entry>
<entry><title>Good training pairs, not scale alone, bring AI models to a shared representation</title><id>https://stacks.braintank.ai/d/arxiv-2610.39302.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.39302.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A preprint proves that one family of AI models learns the same representation across data types when trained on the right pairs, and calls next-token prediction an inefficient route.</summary></entry>
<entry><title>Simulations suggest magnetic reconnection slows down in bigger systems</title><id>https://stacks.braintank.ai/d/W7155156745.html</id><link href="https://stacks.braintank.ai/d/W7155156745.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>Scaling a plasma&#x27;s starting current sheet with the size of the system erases a supposedly universal reconnection rate, according to new computer simulations.</summary></entry>
<entry><title>Dedicated memory for AI agents often underperforms simple retrieval, study reports</title><id>https://stacks.braintank.ai/d/arxiv-2610.34073.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.34073.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A large-scale evaluation suggests that the way memory systems reorganise an agent&#x27;s history can hide evidence, a cost the authors call memory tax.</summary></entry>
<entry><title>Brain scans of 2,175 people find no single neural signature of emotional control</title><id>https://stacks.braintank.ai/d/W7224107502.html</id><link href="https://stacks.braintank.ai/d/W7224107502.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A preregistered analysis of 40 brain-imaging datasets finds that common measures of how well people reframe their feelings disagree, and none tracks prefrontal activity.</summary></entry>
<entry><title>Teaching diffusion vision-language models to look at the image only when needed</title><id>https://stacks.braintank.ai/d/arxiv-2610.36671.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.36671.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A decoding method from KAIST AI checks whether the picture would change the answer before processing it, cutting reported decoding computation to about a third.</summary></entry>
<entry><title>Imagined futures let robot models learn from human videos without action labels</title><id>https://stacks.braintank.ai/d/arxiv-2610.37666.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.37666.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>ThinkWorld, a preprint framework from NVIDIA-affiliated researchers, rewards a robot model when the imagined outcome of a planned motion matches what real footage shows.</summary></entry>
<entry><title>AI modelled on a panel of doctors beats generalist physicians in a diagnosis benchmark</title><id>https://stacks.braintank.ai/d/W4417175683.html</id><link href="https://stacks.braintank.ai/d/W4417175683.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>In a benchmark where diagnosticians must decide what information to gather, a language-model system far outscored generalist doctors, under controlled conditions.</summary></entry>
<entry><title>Tencent&#x27;s single model parses documents, images, audio and video into one format</title><id>https://stacks.braintank.ai/d/arxiv-2610.39301.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.39301.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A preprint describes one shared encoder and one output schema for ten parsing tasks, with the authors reporting leading scores on document and multimodal benchmarks.</summary></entry>
<entry><title>Atomic defects pin electrons in place inside a two-dimensional metal</title><id>https://stacks.braintank.ai/d/W4404313154.html</id><link href="https://stacks.braintank.ai/d/W4404313154.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>Microscopy reveals two localised electronic states hiding among a metal&#x27;s mobile electrons, an electronic counterpart to an effect already achieved with light.</summary></entry>
<entry><title>AI story generation trails story understanding in its use of narrative theory</title><id>https://stacks.braintank.ai/d/W7130561082.html</id><link href="https://stacks.braintank.ai/d/W7130561082.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A survey of language-model research that draws on narratology finds work on reading stories ahead of work on writing them, and argues against a single test of ‘narrative quality’.</summary></entry>
<entry><title>Balloon-borne telescope delivers weak-lensing catalogues for 30 merging galaxy clusters</title><id>https://stacks.braintank.ai/d/W7139913235.html</id><link href="https://stacks.braintank.ai/d/W7139913235.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>Flying above nearly all of the atmosphere, SuperBIT measured the shapes of galaxies behind 30 colliding clusters, and the authors tested whether those shapes can be trusted.</summary></entry>
<entry><title>Inherited DNA variants change how open the genome is, cell type by cell type</title><id>https://stacks.braintank.ai/d/W7224084810.html</id><link href="https://stacks.braintank.ai/d/W7224084810.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A study ties genetic variation to single-cell chromatin accessibility and finds that the genetic signal helps an AI model map how genes are switched on.</summary></entry>
<entry><title>A scheduler that plans around AI agents&#x27; tool calls cuts serving delays</title><id>https://stacks.braintank.ai/d/arxiv-2610.37230.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.37230.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>TAO, described in a preprint, picks which agent sessions get GPU time by weighing when their tools will return, what is cached where and how many tokens they carry.</summary></entry>
<entry><title>Surface-shape maps help an AI video model keep a subject consistent from every side</title><id>https://stacks.braintank.ai/d/arxiv-2610.35684.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.35684.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A KAIST AI preprint steers video generation with geometry maps rebuilt from reference photos, so a subject stays the same as the camera circles it.</summary></entry>
<entry><title>Causal-graph method maps how COVID-19 symptoms cluster and persist after discharge</title><id>https://stacks.braintank.ai/d/W7224744201.html</id><link href="https://stacks.braintank.ai/d/W7224744201.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>Researchers adapted a causal-discovery method to hospital records from 1,937 COVID-19 patients, finding linked lingering symptoms and urging caution on treatment effects.</summary></entry>
<entry><title>Robot control model anticipates motion without generating future video</title><id>https://stacks.braintank.ai/d/arxiv-2610.37381.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.37381.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A preprint describes a vision-language-action model that learns compact physical tokens about how scenes will change, sidestepping the delay of generating video.</summary></entry>
<entry><title>AI that judges left from right may not learn how far away things are</title><id>https://stacks.braintank.ai/d/arxiv-2610.34283.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.34283.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A preprint names a training pitfall called interface lock-in and reports that replaying mixed spatial data in time order improves video models on three benchmarks at once.</summary></entry>
<entry><title>Human insula divides into four regions, with the front one steering the others</title><id>https://stacks.braintank.ai/d/W7154962243.html</id><link href="https://stacks.braintank.ai/d/W7154962243.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>Stimulation and recordings in 87 neurosurgical participants map four functional regions of the insula and an asymmetric pathway through which cognition may shape pain.</summary></entry>
<entry><title>Tencent&#x27;s Hy-Nomas generates video worlds that respond to text and camera commands</title><id>https://stacks.braintank.ai/d/arxiv-2610.36729.html</id><link href="https://stacks.braintank.ai/d/arxiv-2610.36729.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>A video world model from Tencent Hunyuan follows successive typed instructions and camera moves while keeping track of what has already happened on screen.</summary></entry>
<entry><title>X-rays reveal handed spin waves in manganese telluride, a candidate altermagnet</title><id>https://stacks.braintank.ai/d/W4406975366.html</id><link href="https://stacks.braintank.ai/d/W4406975366.html"/><updated>2026-11-01T00:00:00Z</updated><author><name>braintankAI</name></author><summary>Polarised X-ray scattering uncovers a magnetic ripple with a definite twist, whose spin polarisation varies with momentum in line with the material&#x27;s symmetry.</summary></entry>
<entry><title>Voltage–Current-Emission Framework of Time-Resolved Electroluminescence</title><id>https://stacks.braintank.ai/p/W7213594818.html</id><link href="https://stacks.braintank.ai/p/W7213594818.html"/><updated>2026-10-31T00:00:00Z</updated><author><name>Hui Bao et al.</name></author><summary>Nano Letters</summary></entry>
<entry><title>X-ray Crystallography of a Nanobody/JAM-1 Complex Informs Barrier Weakening and Enhanced Drug Permeability in a Cellular Blood–Brain Barrier Model</title><id>https://stacks.braintank.ai/p/W7224737457.html</id><link href="https://stacks.braintank.ai/p/W7224737457.html"/><updated>2026-10-31T00:00:00Z</updated><author><name>Liyu Chen et al.</name></author><summary>ACS Nano</summary></entry>
<entry><title>Your Benchmark Is an Empirical Measure Over Difficulty</title><id>https://stacks.braintank.ai/p/2610.29927.html</id><link href="https://stacks.braintank.ai/p/2610.29927.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Yifan Sun et al.</name></author><summary>A benchmark is not merely a collection of test questions; it naturally induces an empirical measure over difficulty. In this work, we develop this measure-based view of benchmark evaluation. This perspective allows us to identify and formalize two central failure modes: measure mismatch, where the benchmark difficulty distribution differs from the intended difficulty distribution, and coverage gaps, where uncovered regions along the difficulty axis prevent benchmarks from detecting meaningful localized training progress. We propose two diagnostic metrics that capture these two failure modes an</summary></entry>
<entry><title>Multi-Token Prediction Done Right</title><id>https://stacks.braintank.ai/p/2610.38331.html</id><link href="https://stacks.braintank.ai/p/2610.38331.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Jayden Teoh</name></author><summary>Multi-Token Prediction (MTP) is now a common ingredient in language-model pre-training, as it improves downstream performance and enables faster inference through speculative decoding. We identify a flaw in standard MTP training, in which a residual component of the MTP gradient interferes with both next-token and multi-token learning, increasingly so with scale. Specifically, the MTP cross-entropy gradient can be decomposed exactly into a KL self-distillation term that pulls each MTP head toward the model&#x27;s own next-token prediction (NTP) distribution and improves speculative decoding, and a </summary></entry>
<entry><title>WeVisCut: The Whole Editing Room in One Agent From Narration to Long-Form Video</title><id>https://stacks.braintank.ai/p/2610.38352.html</id><link href="https://stacks.braintank.ai/p/2610.38352.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Chenyu Mu et al.</name></author><summary>Producing long-form videos from narration requires interdependent decisions that remain coherent across shots. Existing agentic editors often use multi-stage workflows driven by general models, leaving the quality-cost trade-off of compact, task-adapted policies unclear. We address this gap with WeVisCut, a long-form script-to-video system that connects tool execution with policy learning. Its agent harness maintains shared production state so that tool feedback informs subsequent decisions and repairs. Because finished videos do not expose these decisions, our four-stage data pipeline combine</summary></entry>
<entry><title>IntReal: A Real-World Dataset and Benchmark for Multimodal Interleaved Generation</title><id>https://stacks.braintank.ai/p/2610.38425.html</id><link href="https://stacks.braintank.ai/p/2610.38425.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Shaohan Yu et al.</name></author><summary>Humans routinely consume multimodal content, where textual and visual information is naturally interleaved. Although Unified Multimodal Models (UMMs) can jointly generate text and images, multimodal interleaved generation remains largely underexplored. Progress in this area is hindered by two key limitations: (1) the lack of well-defined interleaved generation tasks and corresponding training data, and (2) the absence of fine-grained evaluation protocols that can reliably diagnose model performance across different capability dimensions. To this end, we present IntReal, comprising two compleme</summary></entry>
<entry><title>CoSTA: Compressed Speech Token Adaptation for Efficient Spoken Dialogue Models</title><id>https://stacks.braintank.ai/p/2610.21143.html</id><link href="https://stacks.braintank.ai/p/2610.21143.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Yingzhuo Deng et al.</name></author><summary>Spoken Dialogue Models (SDMs) typically share a speech-token space for generation and synthesis, leading to long autoregressive sequences and costly inference. Lower-rate speech tokenizers shorten sequences but may introduce compression-quality trade-offs and costly replacement without breaking this coupling. To address this limitation, we propose CoSTA, a compatibility-preserving post-hoc framework that decouples generation and synthesis token spaces while retaining the original speech tokenizer and decoder. CoSTA extends the generation token space with compressed representations via mean-ini</summary></entry>
<entry><title>WebAnything: From the Wild Web to Scalable Agent Environments</title><id>https://stacks.braintank.ai/p/2610.37786.html</id><link href="https://stacks.braintank.ai/p/2610.37786.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Tianci Xie et al.</name></author><summary>Web agents require diverse, executable, and resettable website environments for reproducible training and evaluation. Human-assisted mirrors demand per-site engineering, while generative construction can diverge from specified real websites. Capture-and-replay preserves observations, with interaction coverage constrained by captured content and replay capabilities. We present WebAnything, a fully automated framework that reconstructs source-grounded, reusable Web environments from real URLs without per-site manual implementation or repair after initial setup and authorization. An Explorer-Buil</summary></entry>
<entry><title>Investor&#x27;s Last Exam: Can AI Agents Do Equity Investment Without Seeing the Future?</title><id>https://stacks.braintank.ai/p/2610.38342.html</id><link href="https://stacks.braintank.ai/p/2610.38342.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Huangfei Jiang et al.</name></author><summary>Financial agents must form forecasts and investment judgments from decision-time evidence, with predictions evaluated against subsequent outcomes. Existing benchmarks assess financial knowledge, research workflows, or forecasting, but evaluating the full research process requires a strictly frozen information set and professional evaluation criteria. We introduce Investor&#x27;s Last Exam (ILE), an equity-research benchmark led by experienced buy-side investors and fund managers. Its three components are a versioned financial database spanning 3.43 million document versions and nine source categori</summary></entry>
<entry><title>Glance: The Generator Is Its Own Reranker</title><id>https://stacks.braintank.ai/p/2610.40454.html</id><link href="https://stacks.braintank.ai/p/2610.40454.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Adilet Metinov et al.</name></author><summary>Retrieval-augmented generation commonly serves separate models for reranking and answering, duplicating model residency and passage processing. We introduce Glance, which equips the generator with a lightweight decision adapter and pointer head to score candidate passages from a shared prefill. Short relevance probes branch from the cached context, producing one score per passage without separately prefilling each query-passage pair. A single resident 9B backbone supports generation, general decisions and reranking, with approximately 0.1 GiB of additional memory per decision skill. After 39 m</summary></entry>
<entry><title>AskStream: When and What to Ask Proactively under Uncertainty in Streaming Video Understanding</title><id>https://stacks.braintank.ai/p/2610.38678.html</id><link href="https://stacks.braintank.ai/p/2610.38678.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Lu Wang et al.</name></author><summary>Recent advances in multimodal large language models have increased interest in interaction paradigms for video understanding. The evolution from offline to streaming and proactive interaction has gradually shifted models from passive responders toward more proactive agents that can decide when to answer. However, existing proactive paradigms typically assume that the information required to answer a query is complete, leaving models to only wait or answer. In the real world, however, information is often incomplete due to uncertainty from either the video or the user. In proactive paradigms, s</summary></entry>
<entry><title>EditAgent: Rethinking Agentic Image Editing</title><id>https://stacks.braintank.ai/p/2610.39664.html</id><link href="https://stacks.braintank.ai/p/2610.39664.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Haiyang Xu et al.</name></author><summary>Agentic image editors decompose complex requests into steps, but when a step fails, they mostly retry with the same narrow set of tools and a judge that scores each output by eye directly. We argue that such agents are bounded by two spaces: the action space of what the agent can do, and the observation space of what its judge can see. On our expert-annotated benchmark, a general-purpose editor yields no usable result in over 40% of the cases, and no judge is reliable across edit types. We present EditAgent, which expands both spaces. It routes each step to general editors and specialized meth</summary></entry>
<entry><title>Online Dense Reinforcement Learning with Planning-Grounding Agent for UI Navigation on Live IOS Apps</title><id>https://stacks.braintank.ai/p/2610.39264.html</id><link href="https://stacks.braintank.ai/p/2610.39264.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Peitong Duan et al.</name></author><summary>While frontier vision-language models demonstrate strong capabilities in user interface (UI) navigation, their high inference costs prohibit everyday use. Conversely, smaller models trained via supervised fine-tuning (SFT) or offline reinforcement learning often memorize static trajectories, leading to brittle execution and an inability to recover from errors. To address these limitations, we propose a novel online reinforcement learning framework that trains UI navigation agents directly on live iOS applications. Our framework decouples the agent into two specialized components: a Planning ag</summary></entry>
<entry><title>Training Foundation Models with a Single Algorithm</title><id>https://stacks.braintank.ai/p/2610.40564.html</id><link href="https://stacks.braintank.ai/p/2610.40564.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Yuda Song et al.</name></author><summary>Foundation models are typically trained in stages: pretraining, midtraining, supervised fine-tuning (SFT), and reinforcement learning (RL), with changes in both data and learning algorithms. We show that this algorithmic separation is not fundamental. By deriving suitable RL objectives as maximum-likelihood fitting to model-generated target distributions, we place all of these stages under a single likelihood-based training algorithm, unified training. This perspective turns the foundation-model training lifecycle into a problem of choosing which data to train on, in what proportions, and when</summary></entry>
<entry><title>PhysInsert: Physically Plausible Object Insertion with Geometric Priors and Bidirectional Object-Scene Interactions</title><id>https://stacks.braintank.ai/p/2610.40453.html</id><link href="https://stacks.braintank.ai/p/2610.40453.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Yue Gong et al.</name></author><summary>We present PhysInsert, a framework for physically plausible reference-based object insertion that jointly adapts objects and their surrounding scenes. Existing methods often rely on masked inputs, generation-based pairs, or training pairs with limited viewpoint variation, leaving pose and illumination adaptation and bidirectional object-scene interactions insufficiently constrained. We construct the Insert World dataset with strictly aligned Blender-rendered counterfactual pairs and object references across viewpoints and lighting conditions. Building on these data, Geometry-Guided Adaptation </summary></entry>
<entry><title>Your LR Schedule May Not Be Principled: Effective Learning Rate Scheduling in Weight-Normalized Training</title><id>https://stacks.braintank.ai/p/2610.40362.html</id><link href="https://stacks.braintank.ai/p/2610.40362.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Qifan Yu et al.</name></author><summary>Weight-normalized (WN) training is emerging as a compelling alternative to conventional weight decay (WD), with recent studies reporting substantial pretraining loss gains. We show that these gains are driven primarily by the induced effective learning rate (ELR) trajectory rather than by normalization alone. Matching ELR trajectories largely collapses the training loss dynamics of WN and WD. Schedule design should therefore target ELR rather than the nominal learning rate (LR) alone. Building on this principle, we propose AIR (Affine Inverse-square-Root decay), which combines a theoretically </summary></entry>
<entry><title>OpenFlyV2: An onboard vision-language-action model for aerial perception and navigation</title><id>https://stacks.braintank.ai/p/2610.39287.html</id><link href="https://stacks.braintank.ai/p/2610.39287.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Junli Liu et al.</name></author><summary>Human cognition flexibly draws on a shared perceptual foundation to understand environments, attend to referenced entities, reason about spatial relationships, and act. Endowing aerial robots with an analogous functional organization remains challenging, as existing systems are often specialized for individual capabilities, dependent on offboard computation, or unable to sustain closed-loop operation on resource-constrained platforms. We present OpenFlyV2, a unified onboard vision-language-action architecture that uses a shared vision-language representation to support semantic understanding, </summary></entry>
<entry><title>Scaling Lean Theorem Proving for Real-World Code Verification</title><id>https://stacks.braintank.ai/p/2610.38174.html</id><link href="https://stacks.braintank.ai/p/2610.38174.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Debargha Ganguly et al.</name></author><summary>We present EasyProver, a Lean proving system built from recursive agents with isolated contexts, asynchronous search, parallel tactic probing, and an elastic elaboration service. Using an off-the-shelf frontier model with no additional training, it proves 669/672 PutnamBench problems and all six IMO 2026 formalizations and resolves 597/600 NTP4VC verification conditions and all 189 VERINA tasks by proof or refutation. Because these benchmarks are close to saturation, we also introduce Aegis, which converts competitive programming problems into much harder verification tasks over real implement</summary></entry>
<entry><title>AB-Attention: Accurate Block Attention for Accelerating Video Diffusion Transformers</title><id>https://stacks.braintank.ai/p/2610.39663.html</id><link href="https://stacks.braintank.ai/p/2610.39663.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Bin Xu et al.</name></author><summary>Video diffusion transformers generate high-quality videos, but the quadratic cost of 3D full attention dominates their inference. Dynamic block-sparse attention reduces this cost by computing exact attention only on key/value blocks selected from current activations. However, its fidelity degrades under aggressive sparsity: blocks are scored from coarse summaries or formed by costly global clustering, pruned blocks vanish from the softmax, and whole tiles are kept or dropped even when only a few of their keys matter. To address these limitations, we propose Accurate Block Attention (AB-Attenti</summary></entry>
<entry><title>Broken on Arrival: Non-Functional Quantized LLM Artifacts in Public Model Registries and How to Catch Them</title><id>https://stacks.braintank.ai/p/2609.05881.html</id><link href="https://stacks.braintank.ai/p/2609.05881.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Aditi Patodiya</name></author><summary>Developers download quantized large language models (LLMs) from public registries to run them locally. None of the registries we examined documented functional testing of their files. We tested all 305 eligible code-capable GGUF tags (the llama.cpp format) across 15 model lines in the official Ollama library, plus 22 popular Hugging Face community files. A 15-task code screen identified suspects, which we retested on all 164 HumanEval+ tasks. Seven official tags (2.3%) solved at most six of them. All were low-bit quantizations of models with at most four billion parameters. We rebuilt five sus</summary></entry>
<entry><title>SO-101 Bench: Accessible Spatial Manipulation</title><id>https://stacks.braintank.ai/p/2610.36420.html</id><link href="https://stacks.braintank.ai/p/2610.36420.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Truman Hickok</name></author><summary>Low-cost arms such as the SO-101 have become the most common entry point to robot learning, yet no released policy performs spatially constrained, language-conditioned tasks on them out of the box, and existing SO-101 benchmarks run only on physical hardware with simple tasks and few held-out objects. We introduce SO-101 Bench, a simulated benchmark for language-conditioned spatial manipulation built on an Isaac Lab digital twin of a real SO-101 setup. It has four tasks scored as five families, 138 objects in seen, unseen-instance and unseen-class splits, 916 evaluation episodes with subsets f</summary></entry>
<entry><title>Matched Capabilities, Different Behaviors: A Controlled Study of MCP and CLI Interfaces for Language Agents</title><id>https://stacks.braintank.ai/p/2610.34298.html</id><link href="https://stacks.braintank.ai/p/2610.34298.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Zhenning Shi et al.</name></author><summary>Language agents increasingly act through external tools and interactive environments, making the interface between the model and its executable capabilities part of the decision process. Model Context Protocol (MCP) and command-line interfaces (CLI) can expose the same semantic operations through markedly different model-facing representations. We study whether these representational differences change agent behavior when executable capabilities are matched. We introduce Matched Interface Comparison and Analysis (MICA), which renders MCP and CLI from a shared semantic action contract and route</summary></entry>
<entry><title>ABF-Bench: A Verifiable Benchmark for Agentic Blockchain Forensics</title><id>https://stacks.braintank.ai/p/2610.23656.html</id><link href="https://stacks.braintank.ai/p/2610.23656.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Xiaohang Yu et al.</name></author><summary>Blockchain forensics is adversarial and open-ended: money launderers split, swap, and bridge funds, cut their trail at mixers or custodial services, and change tactics from one incident to the next. Investigators must keep adapting their tracing in response. Yet the immutability of public ledgers preserves every recorded movement in public view, making much of the investigation independently verifiable. We introduce ABF-Bench, an interactive benchmark that makes evidence-backed fund tracing a verifiable agent task, in which every claimed movement must cite ledger records the agent retrieved. A</summary></entry>
<entry><title>Holo4D: Holistic 4D Reconstruction as Geometric Control for Video Diffusion</title><id>https://stacks.braintank.ai/p/2610.25276.html</id><link href="https://stacks.braintank.ai/p/2610.25276.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Yushi Lan et al.</name></author><summary>Synthesizing a monocular video from a new camera trajectory requires preserving the observed scene geometry and motion while completing regions that become newly visible. Feed-forward 4D reconstructors recover the structure of the observed scene, whereas video diffusion models provide a generative prior for completing unseen content. We introduce Holo4D, a video reshooting framework that uses reconstructed 3D trajectories as a holistic source-view 4D scaffold. We project these trajectories into the requested views and encode their geometry and source appearance to guide a pretrained video diff</summary></entry>
<entry><title>EPSBench: Benchmarking LLM Agents for Earnings Forecasting</title><id>https://stacks.braintank.ai/p/2610.38293.html</id><link href="https://stacks.braintank.ai/p/2610.38293.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Yanbin Yin et al.</name></author><summary>Quarterly earnings forecasting requires an agent to connect financial evidence to the income-statement line items that produce a company&#x27;s reported earnings. We introduce EPSBench, a benchmark for studying this ability across 149 firm-quarters from 86 US companies. Agents read a fixed collection of filings, earnings-call transcripts, and news, then estimate company-specific income-statement drivers with cited evidence. A shared accounting calculator converts these estimates into GAAP diluted earnings per share (EPS), providing a common basis for comparing forecast assumptions. We evaluate six </summary></entry>
<entry><title>Weaken to Strengthen: Weakening-Induced On-Policy Self-Distillation for Large Reasoning Models</title><id>https://stacks.braintank.ai/p/2610.38681.html</id><link href="https://stacks.braintank.ai/p/2610.38681.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Yecheng Wu et al.</name></author><summary>Self-distillation offers a way to improve reasoning models when a suitable external teacher is unavailable. However, common approaches rely on privileged information to construct a stronger self-teacher, limiting their use when only unlabeled prompts are available. In this paper, we introduce Weakening-Induced On-Policy Self-Distillation (WISD), which instead constructs a weaker counterpart of the original model and uses the contrast between the two as a training signal without requiring privileged information. We explore two ways to construct the weaker model: low-bit quantization and magnitu</summary></entry>
<entry><title>Unlocking Any-Order Generation in Pretrained Autoregressive Image Models</title><id>https://stacks.braintank.ai/p/2610.39293.html</id><link href="https://stacks.braintank.ai/p/2610.39293.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Rishav Pramanik et al.</name></author><summary>Autoregressive (AR) image generators are powerful in principle but inflexible in practice: training with a fixed raster-scan order hardcodes a single factorization of the image distribution into the model, leaving it unable to inpaint, outpaint, or edit at inference time. Existing solutions, including the modern discrete-diffusion family, train from scratch on a mixture of token orderings, paying roughly 3x the compute of standard raster-scan training; discrete diffusion further sacrifices compatibility with the AR inference ecosystem (KV caching, vLLM) by construction. We argue that this cost</summary></entry>
<entry><title>After One-Click Video: The Inflow of Service-Type Content, the Failure of the Recommendation Pool Mechanism, and the BoLe System</title><id>https://stacks.braintank.ai/p/2610.37695.html</id><link href="https://stacks.braintank.ai/p/2610.37695.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Bo Zou et al.</name></author><summary>In September 2026, a new large language model was released. Soon after, a new way of making explainer videos became very popular: people asked the model to write a program, and the program produced the video. &quot;One-click video&quot; content then appeared in large amounts on many platforms. On the surface, this is a rise in creative power at the level of the individual. We argue that, at a deeper level, it changes the structure of the content industry. This judgment rests on two observations. First, this wave of content is service-type content. People watch it to meet a need, not to enjoy the content</summary></entry>
<entry><title>FDSML: Formula-Driven Supervised Metric Learning with Parameter-Aware Triplet Loss</title><id>https://stacks.braintank.ai/p/2610.39423.html</id><link href="https://stacks.braintank.ai/p/2610.39423.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Hina Otake et al.</name></author><summary>Formula-Driven Supervised Learning (FDSL) enables vision pre-training without real images, but existing methods cast pre-training as classification on discretized labels, discarding continuity in the generative process. We propose Formula-Driven Supervised Metric Learning (FDSML), which derives relational supervision from image-generation parameters beyond discrete class labels. FDSML combines FineFractalDB, our refined fractal dataset with higher intra-class variation and more stable structures, with a Parameter-Aware Triplet (PA-Triplet) Loss that assigns positives and negatives according to</summary></entry>
<entry><title>Causal discovery and inference in COVID-19: A multiscale longitudinal analysis using mixtures of DAGs</title><id>https://stacks.braintank.ai/p/W7224744201.html</id><link href="https://stacks.braintank.ai/p/W7224744201.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Kosar Abdollahi et al.</name></author><summary>PLoS ONE</summary></entry>
<entry><title>A symmetry breaking swarm optimizer derived from the Landau theory of phase transitions</title><id>https://stacks.braintank.ai/p/W7221179570.html</id><link href="https://stacks.braintank.ai/p/W7221179570.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Keyin Chen et al.</name></author><summary>Scientific Reports</summary></entry>
<entry><title>An interpretable deep learning method for early hepatocellular carcinoma diagnosis on multiphase CT</title><id>https://stacks.braintank.ai/p/W7223204242.html</id><link href="https://stacks.braintank.ai/p/W7223204242.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Emma Sarfati et al.</name></author><summary>Scientific Reports</summary></entry>
<entry><title>GLTF-FEDformer: an adaptive time-frequency fusion method for multivariate time series anomaly detection enhanced by prediction error embedding</title><id>https://stacks.braintank.ai/p/W7224481444.html</id><link href="https://stacks.braintank.ai/p/W7224481444.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Hanbing Nie et al.</name></author><summary>Scientific Reports</summary></entry>
<entry><title>GeoCTGAN generates privacy-aware geosynthetic event data</title><id>https://stacks.braintank.ai/p/W7224836018.html</id><link href="https://stacks.braintank.ai/p/W7224836018.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Abu Yousuf Md Abdullah et al.</name></author><summary>Scientific Reports</summary></entry>
<entry><title>Copy-cup gates in tensor products of group algebra codes</title><id>https://stacks.braintank.ai/p/W7131891388.html</id><link href="https://stacks.braintank.ai/p/W7131891388.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Ryan Tiew et al.</name></author><summary>Physical Review A</summary></entry>
<entry><title>Quantum purity amplification for arbitrary eigenstates and multiple outputs</title><id>https://stacks.braintank.ai/p/W7162118427.html</id><link href="https://stacks.braintank.ai/p/W7162118427.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Zhaoyi Li et al.</name></author><summary>Physical Review A</summary></entry>
<entry><title>HypeRL: Hypernetwork-based reinforcement learning for control of parametrized dynamical systems</title><id>https://stacks.braintank.ai/p/W4406231517.html</id><link href="https://stacks.braintank.ai/p/W4406231517.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Nicolò Botteghi et al.</name></author><summary>Computer Methods in Applied Mechanics and Engineering</summary></entry>
<entry><title>BigpictureQC: multi-stain, multi-species artifact segmentation for whole-slide quality control</title><id>https://stacks.braintank.ai/p/W7224803771.html</id><link href="https://stacks.braintank.ai/p/W7224803771.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Marina D&#x27;Amato et al.</name></author><summary>BMC Medicine</summary></entry>
<entry><title>Algebraic structures of the Lindblad equation</title><id>https://stacks.braintank.ai/p/W7224805465.html</id><link href="https://stacks.braintank.ai/p/W7224805465.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Leonel De La Cruz Bixano et al.</name></author><summary>New Journal of Physics</summary></entry>
<entry><title>DHR-OD: Dynamic Heterogeneous Redundancy for Robust Object Detection</title><id>https://stacks.braintank.ai/p/W7224757932.html</id><link href="https://stacks.braintank.ai/p/W7224757932.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Fengrui Tian et al.</name></author><summary>Applied Sciences</summary></entry>
<entry><title>A Semi-Parallel Multi-Timescale Reinforcement Learning Method for Coordinated Motion Planning and Hydraulic Control of Mobile Manipulators</title><id>https://stacks.braintank.ai/p/W7224781355.html</id><link href="https://stacks.braintank.ai/p/W7224781355.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Feihong Liu et al.</name></author><summary>Applied Sciences</summary></entry>
<entry><title>Dataset Explanation Signatures for Visual Recognition: A Model-Free Region-Level Reference for Shortcut and Label-Quality Auditing</title><id>https://stacks.braintank.ai/p/W7224786985.html</id><link href="https://stacks.braintank.ai/p/W7224786985.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Shakhnoza Muksimova et al.</name></author><summary>Applied Sciences</summary></entry>
<entry><title>DOD: Double Online Distillation for Continual Learning</title><id>https://stacks.braintank.ai/p/W7224796159.html</id><link href="https://stacks.braintank.ai/p/W7224796159.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Qiang Wang et al.</name></author><summary>Applied Sciences</summary></entry>
<entry><title>A hybrid car-following behavior prediction framework for snowy weather based on stacking ensemble learning</title><id>https://stacks.braintank.ai/p/W7224853653.html</id><link href="https://stacks.braintank.ai/p/W7224853653.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Zengjie Luo et al.</name></author><summary>PLoS ONE</summary></entry>
<entry><title>Latent-aligned scalable interpolant transformer for controllable chest X-ray synthesis</title><id>https://stacks.braintank.ai/p/W7224830066.html</id><link href="https://stacks.braintank.ai/p/W7224830066.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Isabella Schlattner et al.</name></author><summary>Scientific Reports</summary></entry>
<entry><title>One-minute frequency disturbances from unintended synchronization in cyber–physical power systems</title><id>https://stacks.braintank.ai/p/W7224943923.html</id><link href="https://stacks.braintank.ai/p/W7224943923.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Carlos R. P. Hartmann et al.</name></author><summary>Nature Energy</summary></entry>
<entry><title>Multiuser Two-Dimensional Display Field Communication Using Orthogonal Frequency Subband Partitioning</title><id>https://stacks.braintank.ai/p/W7224742153.html</id><link href="https://stacks.braintank.ai/p/W7224742153.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Pankaj Singh et al.</name></author><summary>Sensors</summary></entry>
<entry><title>EDCS-YOLOv8: A Lightweight YOLOv8n Variant for Ship Detection in Optical Imagery</title><id>https://stacks.braintank.ai/p/W7224749438.html</id><link href="https://stacks.braintank.ai/p/W7224749438.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Junxi Qiang et al.</name></author><summary>Sensors</summary></entry>
<entry><title>A Review of Fault Diagnosis Technology for Rotating Machinery Based on Deep Generative Models</title><id>https://stacks.braintank.ai/p/W7224784668.html</id><link href="https://stacks.braintank.ai/p/W7224784668.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Guoqiang Pang et al.</name></author><summary>Sensors</summary></entry>
<entry><title>Lightweight Fault Identification of Magnetic Latching Needle Selectors Based on Multistage Transient Drive Current Responses</title><id>https://stacks.braintank.ai/p/W7224853189.html</id><link href="https://stacks.braintank.ai/p/W7224853189.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Laihu Peng et al.</name></author><summary>Sensors</summary></entry>
<entry><title>Information-Driven Cooperative Path Planning for Multi-UAV Bearings-Only Tracking of Clustered Targets</title><id>https://stacks.braintank.ai/p/W7224867589.html</id><link href="https://stacks.braintank.ai/p/W7224867589.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Fuchao Xie et al.</name></author><summary>Sensors</summary></entry>
<entry><title>Hierarchical Discriminative Feature Refinement for Robust and Lightweight Clothing Detection</title><id>https://stacks.braintank.ai/p/W7224871004.html</id><link href="https://stacks.braintank.ai/p/W7224871004.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Huawen Li et al.</name></author><summary>Sensors</summary></entry>
<entry><title>A Parameter-Compact Network with Hierarchical Detail Enhancement and High-Resolution Multiscale Fusion for Small Object Detection in UAV Imagery</title><id>https://stacks.braintank.ai/p/W7224734487.html</id><link href="https://stacks.braintank.ai/p/W7224734487.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Jiaqi Li et al.</name></author><summary>Remote Sensing</summary></entry>
<entry><title>Bidirectional Global-Edge Refinement Network for Aerial Infrared Segmentation in Automated Industrial Inspection</title><id>https://stacks.braintank.ai/p/W7224740315.html</id><link href="https://stacks.braintank.ai/p/W7224740315.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Bo Wang et al.</name></author><summary>Remote Sensing</summary></entry>
<entry><title>Generative structure-guided denoising diffusion probabilistic model for MR to CT image synthesis in radiotherapy planning</title><id>https://stacks.braintank.ai/p/W7224775840.html</id><link href="https://stacks.braintank.ai/p/W7224775840.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Redha Touati et al.</name></author><summary>Physics in Medicine and Biology</summary></entry>
<entry><title>Artificial intelligence-enabled detection of vascular perfusion defects on ventilation/perfusion (V/Q) scintigraphy for pulmonary embolism</title><id>https://stacks.braintank.ai/p/W7224814814.html</id><link href="https://stacks.braintank.ai/p/W7224814814.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Amir Jabbarpour et al.</name></author><summary>Physics in Medicine and Biology</summary></entry>
<entry><title>Mark A. Ratner (1942–2026): Founded molecular electronics while spearheading the growth of science at Northwestern University</title><id>https://stacks.braintank.ai/p/W7224824287.html</id><link href="https://stacks.braintank.ai/p/W7224824287.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Gemma C. Solomon et al.</name></author><summary>Proceedings of the National Academy of Sciences</summary></entry>
<entry><title>Evidence for clean d-wave superconductivity in the samarium nickelates</title><id>https://stacks.braintank.ai/p/W7117307079.html</id><link href="https://stacks.braintank.ai/p/W7117307079.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Qingming Huang et al.</name></author><summary>Physical Review Letters</summary></entry>
<entry><title>Kirigami‐Inspired Stretchable Silicon Solar Cell Modules as Portable Power Sources</title><id>https://stacks.braintank.ai/p/W7224827137.html</id><link href="https://stacks.braintank.ai/p/W7224827137.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Yusheng Zhang et al.</name></author><summary>Advanced Materials</summary></entry>
<entry><title>Memristive crossbar architecture for programmable and scalable terahertz metasurface</title><id>https://stacks.braintank.ai/p/W7224804756.html</id><link href="https://stacks.braintank.ai/p/W7224804756.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Hangbing Guo et al.</name></author><summary>Nature Communications</summary></entry>
<entry><title>The Elusive [B(ReO 4 ) 4 ] − Anion in the Non‐Centrosymmetric Crystal Structure of K[B(ReO 4 ) 4 ]</title><id>https://stacks.braintank.ai/p/W7224827701.html</id><link href="https://stacks.braintank.ai/p/W7224827701.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Stefan Sutorius et al.</name></author><summary>Angewandte Chemie International Edition</summary></entry>
<entry><title>Long-term electricity load forecasting model based on multi-period and multi-scale analysis</title><id>https://stacks.braintank.ai/p/W7224806679.html</id><link href="https://stacks.braintank.ai/p/W7224806679.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Xiaolin Zhang et al.</name></author><summary>PLoS ONE</summary></entry>
<entry><title>Heteroengineering‐Induced Electronic Reconstruction for Ammonium‐Ion Energy Storage</title><id>https://stacks.braintank.ai/p/W7224766628.html</id><link href="https://stacks.braintank.ai/p/W7224766628.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Ji‐Chi Liu et al.</name></author><summary>Advanced Functional Materials</summary></entry>
<entry><title>Intruding delta waves during REM sleep are associated with tau, amyloid, and forgetting in aging</title><id>https://stacks.braintank.ai/p/W7224925127.html</id><link href="https://stacks.braintank.ai/p/W7224925127.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Tenzin Desel et al.</name></author><summary>Nature Communications</summary></entry>
<entry><title>BitterBuster: A virtual world for understanding naturalistic patch foraging</title><id>https://stacks.braintank.ai/p/W7224843773.html</id><link href="https://stacks.braintank.ai/p/W7224843773.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>John P. Kasarda et al.</name></author><summary>PLoS ONE</summary></entry>
<entry><title>A self-supervised reconstruction framework for segment-level detection of task-induced deviations in multi-channel EEG</title><id>https://stacks.braintank.ai/p/W7224914178.html</id><link href="https://stacks.braintank.ai/p/W7224914178.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Lucas A. Saavedra et al.</name></author><summary>PLoS ONE</summary></entry>
<entry><title>Electrophysiological properties of mesodiencephalic junction neurons projecting to the inferior olive</title><id>https://stacks.braintank.ai/p/W7153517455.html</id><link href="https://stacks.braintank.ai/p/W7153517455.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Stijn Voerman et al.</name></author><summary>The Journal of Physiology</summary></entry>
<entry><title>Conservation of a synaptic blueprint across the animal kingdom</title><id>https://stacks.braintank.ai/p/W7224774922.html</id><link href="https://stacks.braintank.ai/p/W7224774922.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Aiden Houcek et al.</name></author><summary>The Journal of Physiology</summary></entry>
<entry><title>Establishing a normative model for turbulence dynamics in the brain</title><id>https://stacks.braintank.ai/p/W7224782235.html</id><link href="https://stacks.braintank.ai/p/W7224782235.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>Jolene K. Berg et al.</name></author><summary>Scientific Reports</summary></entry>
<entry><title>Transformer language models reveal distinct patterns in aphasia subtypes and longitudinal change</title><id>https://stacks.braintank.ai/p/W7224788819.html</id><link href="https://stacks.braintank.ai/p/W7224788819.html"/><updated>2026-10-30T00:00:00Z</updated><author><name>S. Saeed Ahmadi et al.</name></author><summary>Scientific Reports</summary></entry>
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