Search papers, labs, and topics across Lattice.
100 papers published across 9 labs.
Seed2.0 not only excels in reasoning and visual tasks but also adapts to complex real-world challenges, setting a new standard for user-centric AI models.
A multi-agent framework that combines prior knowledge with data-driven analysis can significantly enhance causal discovery in complex, high-dimensional datasets.
Simple Best-of-$N$ sampling can outperform complex guided search methods in text-to-image generation, revealing a critical flaw in how we evaluate efficiency in diffusion models.
Transplanting a latent persona direction can double the misalignment in language models, revealing critical insights into how fine-tuning methods shape model behavior.
CIC guarantees controlled error rates in LLM responses while maximizing answering efficiency, a breakthrough for reliability-sensitive QA systems.
Simple Best-of-$N$ sampling can outperform complex guided search methods in text-to-image generation, revealing a critical flaw in how we evaluate efficiency in diffusion models.
Transplanting a latent persona direction can double the misalignment in language models, revealing critical insights into how fine-tuning methods shape model behavior.
CIC guarantees controlled error rates in LLM responses while maximizing answering efficiency, a breakthrough for reliability-sensitive QA systems.
Hindsight Supervised Learning transforms agent rollouts into a rich source of supervision, achieving superior performance with only a fraction of the required demonstrations.
Control-oriented effects of welfare algorithms are easily capitalized on, but reversing to a supportive role is a costly and rare endeavor.
Consolidating knowledge in intelligent agents without altering their certified identity could revolutionize compliance in autonomous systems.
WARP reveals the hidden training data portfolios of foundation models with remarkable accuracy, challenging the opacity of model training processes.
LLM agents can alter their public statements by up to 40% based on social context, revealing hidden motivations that challenge traditional evaluation methods.
DemoPSD effectively reduces privileged information leakage while enhancing exploration, leading to superior generalization in large language models.
Explicitly modeling rare extreme events in time series forecasting can significantly enhance predictive accuracy, as shown by Exformer's superior performance over traditional models.
Persona expression in LLMs reveals a surprising duality: while aggregated traits are stable, their geometric representations are highly sensitive to context, collapsing under misalignment.
Identifying multi-dimensional refusal subspaces in LLMs can be done in seconds, unlocking new avenues for safety and interpretability without the computational burden.
Trust-region optimization can dramatically enhance the training of neural quantum states, achieving stability and speed at unprecedented scales.
Ignoring the counterfactual structure in decision-making can lead to significant losses in both validity and utility, as shown by the authors' innovative approach to policy-coupled coverage.
The logarithmic factor in multi-secretary problem regret bounds is not just a technicality; it’s essential, revealing that optimal regret can grow quadratically under certain conditions.
DALorRA achieves remarkable uncertainty calibration in LLMs without sacrificing reasoning performance, tackling the critical issue of overconfidence in AI systems.
ART-RL transforms diffusion sampling by learning adaptive timesteps that significantly enhance sample quality without altering the existing sampling pipeline.
Achieving silhouette estimation with a fraction of the distance calculations, our methods redefine efficiency for clustering quality assessment in large datasets.
A constraint-based oversight system can boost vulnerability detection in coding agents from 54.5% to 90.9%, making human review more efficient and secure.
A novel operationalization of AI risk assessment reveals that PII leakage can vary dramatically, with disclosure rates shifting from 0% to 84% based on adversarial conditions.
Contextual state poisoning can be thwarted with a robust protocol that not only secures agent memory but also allows for traceable recovery from malicious alterations.
Infinite Agentic Loops can turn a single request into a costly, endless cycle of execution, but IAL-Scan can detect and prevent these failures before they escalate.
DSINet prevents knowledge degradation in domain-incremental change detection, ensuring stable spatial representations even as geographic domains evolve.
AEW achieves optimal performance in expectation for model selection aggregation, revealing a critical phase transition that could redefine its application in statistical learning.
A multi-agent framework that combines prior knowledge with data-driven analysis can significantly enhance causal discovery in complex, high-dimensional datasets.
Exhaustive analysis of decision trees is now feasible with a new algebraic framework that transforms complex metrics into actionable insights for model selection.
A novel validation framework that ensures AI agents in telecom networks make safer, more reliable decisions by dynamically assessing the criticality of their actions.
SkillFuzz uncovers over 1,000 implicit intents in skill compositions, revealing hidden risks that traditional auditing methods miss.
Human-AI collaboration thrives on collaborative traits, not just cognitive skills, with only a minority of forecasters achieving superior accuracy through genuine engagement.
LLM agents can dramatically improve their long-horizon decision-making by strategically managing memory, with performance varying significantly based on memory structure.
Theoria achieves a remarkable 91.4% precision in certifying AI-generated answers, revealing hidden premises that traditional LLM judges often miss.
IMPFM achieves unprecedented global exploration in feedback-driven search by leveraging multi-particle interactions to prevent mode collapse and reward over-optimization.
Training generative models with a decision-aware approach can significantly enhance performance in high-stakes environments where forecast errors carry different costs.
Human feedback can dramatically enhance model generalization in unseen environments, reducing deployment loss and divergence through expert-guided data synthesis.
Refining Cover's theory reveals that low-dimensional data structures can dramatically enhance classification capabilities, challenging traditional assumptions in machine learning.
Auxiliary data can dramatically enhance constrained Bayesian Optimization, even when weakly correlated, leading to superior exploration and solution identification.
Dead directions in neural networks can be classified and quantified without traditional alignment methods, revealing deeper insights into network architecture and behavior.
Critic complexity can be directly controlled in reinforcement learning, offering a new lever for optimizing training performance.
Memory management emerges as a high-leverage skill that can double or quadruple the performance of LLMs in complex tasks without altering their core action behaviors.
Agents trained on static benchmarks falter dramatically in open-world settings, revealing a critical gap in their adaptability to real-world complexities.
AI-generated code may be abundant, but maintaining effective governance in its development is crucial to prevent structural failures and ensure long-term maintainability.
Self-evolving agents can now adapt without sacrificing performance guarantees, achieving up to a 5-point increase in capability while preventing regressions.
Self-GC prunes nearly 44% of unnecessary tokens while ensuring that future interactions remain largely unaffected, revolutionizing context management for LLMs.
Viewing AI systems as collaborators rather than tools reshapes our understanding of responsibility and trust in high-stakes environments.
NATO's military innovation strategy is transforming, but the rapid pace of technology diffusion presents unprecedented challenges to alliance cohesion and effectiveness.
A unified security and privacy framework reveals critical vulnerabilities in AI-native 6G networks that could jeopardize their integrity and interoperability.
Developers are more likely to trust AI with decision-making in high-demand tasks, but resist autonomy in work that defines their professional identity.
SessionBound ensures that AI agents can generate SQL freely while strictly enforcing operational boundaries, significantly mitigating authorization risks in enterprise environments.
Runtime records alone can't ensure legal accountability; they need to convey the right context to be deemed adequate for oversight.
CloudyGUI enables researchers to simulate cloud auto-scaling with unprecedented ease and accuracy, bridging a critical gap in resource management tools.
PolicyGuard transforms organizational policy into a transparent review engine, making compliance decisions explicit and testable.
Optimal block size selection can lead to a 4.20x speedup in diffusion-based speculative decoding, revolutionizing inference efficiency.
RLMF not only boosts LLMs' ability to accurately express uncertainty but also enhances their self-assessment capabilities, fundamentally reshaping their trustworthiness.
CoMet reveals that decomposing uncertainty into context and multiplicity components can lead to substantial improvements in uncertainty estimation for multimodal AI systems.
Failure can be a powerful tool for uncovering the true requirements of machine learning systems, leading to better alignment with stakeholder needs.
Regularizing the SAIL objective with reverse KL divergence not only resolves convergence issues but also enhances performance in LLM alignment tasks.
ECHO enables RL agents to retain and leverage fine-grained historical evidence, achieving a 43.4% accuracy on complex tasks while using less context than prior methods.
Optimiser choice can amplify or suppress emergent misalignment in LLMs, with a staggering sevenfold difference in misalignment rates observed across various optimisers.
Achieving optimal regret and constraint violation without relying on Slater's condition could revolutionize how we approach online convex optimization.
Calibration in AI-assisted research is not just about cautious wording; it's a fundamental mechanism for asserting scientific rights based on evidence.
Transformers can effectively mimic Bayesian updating processes to achieve oracle-level efficiency in average treatment effect estimation, outperforming conventional methods.
STRATA achieves 50x better energy efficiency than conventional storm-resolving models while delivering realistic global weather simulations at kilometer-scale resolution.
Understanding is not binary; this framework reveals how agents can possess varying degrees of comprehension about the same proposition, reshaping our approach to epistemic logic.
Evolving principle-guided supervision can boost MLLM reasoning accuracy by up to 24.6%, transforming how we train models for complex decision-making tasks.
Automating the generation of cause-and-effect specifications could revolutionize process control by drastically cutting down manual errors and inconsistencies.
Balancing autonomy and robustness in AI agents could redefine how we implement and manage intelligent systems in dynamic environments.
ACE revolutionizes context management for LLM agents, enabling them to adaptively retain critical information without loss, leading to superior decision-making performance.
Untrusted AI agents can now operate at unprecedented speeds while maintaining rigorous safety guarantees, achieving a 2.96x speedup with only 2.1% regret.
RosettaSim redefines traffic simulation by harnessing LLMs, achieving superior long-term fidelity and accuracy in agent interactions.
Stability-focused learning can revolutionize how adaptive systems respond to real-world perturbations, bridging gaps between theoretical control and practical machine learning applications.
Seed2.0 not only excels in reasoning and visual tasks but also adapts to complex real-world challenges, setting a new standard for user-centric AI models.
Browser agents can achieve unprecedented scalability by harnessing the collective skills of internet users through skill distillation.
Over half of public administration research on AI fails to specify the system type, leading to misleading conclusions about accountability and justice.
Category theory reveals that AI identity is not a simple equality of trustworthiness but a complex interplay of transformations and histories.
All major agent interoperability protocols fail to support essential governance features like voting and dissent preservation, exposing a critical architectural gap.
Steering vectors can transform how we control language models, paving the way for trustworthy AI interactions in high-stakes environments.
ITSPACE achieves faster convergence to optimal covariance alignment, outperforming traditional methods even under strict computational constraints.
Estimating valid transport maps can be as hard as optimal transport, but under certain conditions, alternative maps can be learned with significantly higher accuracy.
Temporal dependence doesn't have to compromise the validity of causal inference—DR-ACI ensures reliable prediction intervals even in complex settings.
When transformers meet Bayes joint-distribution conditions, they perform rigorous Bayesian posterior updates, bridging theory and practice in AI architectures.
REAR transforms how we achieve user preference alignment in LLMs, enabling scalable realignment without costly retraining.
B3O achieves unprecedented efficiency in large-batch Bayesian Optimization, outperforming traditional methods while maintaining batch diversity.
Hierarchical learning systems can exhibit phase transitions, revealing multiple equilibrium states that challenge traditional views on model optimization.
A groundbreaking certification method ensures that language models can generate reliable physical designs without the risk of forgery, achieving zero false certifications in adversarial conditions.
Current large language models lack a fundamental capability—situation perception—that is essential for achieving true artificial superintelligence.
The literature reveals a surprising imbalance: while always-on agents excel at accumulating state, they largely neglect essential governance and recovery mechanisms.
Inoculation adapters can suppress undesired traits in AI models while introducing fewer unexpected vulnerabilities compared to traditional inoculation prompting methods.
Guaranteed probabilistic safety bounds can be achieved even with imprecise input distributions and dependence structures in neural network verification.
Transforming textual skills into adaptable parameters at test time boosts LLM performance by over 6 points in complex software engineering tasks.
LLMs can be steered to respect instruction hierarchies in multi-turn dialogues without the need for costly fine-tuning, revealing a novel approach to mitigating role-influence inversion.
VISTA transforms how LLMs manage context by revealing their internal state, leading to unprecedented performance gains without the need for retraining.
Language models undergo a crystallization-like process during alignment, transitioning from high entropy to a concentrated distribution that reveals fundamental limits of alignment.
Generative AI agents can reveal how personalization algorithms amplify toxic content in ways that vary dramatically by user ideology.
Revoking learned states in language models can achieve second-order accuracy, drastically improving safety without sacrificing performance.
Risk-averse decision-making can backfire, leading to generic outputs, while Bayesian methods enhance LLM performance in high-stakes tasks like tutoring and peer review.
Agentic AI systems can outperform human-like models by leveraging context architecture instead of social constructs, reshaping our understanding of collective intelligence in AI.
Open-ended LLM conversations reveal model-specific attractors that significantly shape discourse dynamics and influence partner behaviors.
Achieving a 1,824-fold speedup in privacy accounting could redefine how the U.S. Census Bureau optimizes data utility while ensuring compliance with differential privacy standards.
CURE not only eliminates deprecated API usage but also ensures that code LLMs generate accurate replacements, achieving a balance that was previously unattainable.
UCOB achieves unprecedented performance in agentic reinforcement learning by dynamically refining skill usage through credit-aware self-distillation.