AI Sentinel: Frontier

AI Daily Review

2026-08-14 · English · full text with sources

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Frontier AI’s Capability Claims Outpace Its Reliability Evidence

2026-08-14 02:00 UTC

Highlights

The current trajectory of artificial intelligence is increasingly defined by a pronounced divergence between the ambitious claims of frontier capability and the empirical realities of reliability, cost, and societal impact. This review synthesizes a wave of new benchmarks, audits, and deployment data to examine that gap. The argument unfolds by first analyzing the competitive dynamics of the frontier model race, where pricing and speed have become as critical as raw performance. It then contrasts this with enterprise telemetry, which reveals a more cautious adoption landscape, before dissecting the operational reliability of AI agents. Subsequent sections address the evolution of safety threats, the growing role of AI in scientific validation, and the imperative for efficiency in a compute-constrained environment. The review concludes by surveying the expanding application space and notable developments in governance and infrastructure, collectively painting a nuanced picture of progress.

The Frontier Model Race: Speed, Price, and the New Competitive Dynamics

The competitive dynamics of the frontier model market are shifting from a singular focus on raw capability toward a multi-front contest defined by release cadence, performance-per-dollar, and strategic integration. The rapid succession of new model releases and aggressive pricing moves suggests that deployment speed and cost-efficiency are becoming decisive factors in challenging the market position of established leaders.

Google’s release of Gemini 3.7 Flash, arriving just three weeks after its predecessor, exemplifies this accelerated iteration cycle. The official company announcement positions the model as a "workhorse" for coding and agents, with an introductory price of $0.75 per 1M input and $3.75 per 1M output tokens, a move the company states could "significantly lower the cost of deploying capable AI agents" 1. Media analysis from The Decoder extends this, reporting that the new model undercuts its three-week-old predecessor’s price by 50% while delivering substantial benchmark gains—scoring 43.6% on FrontierCode (up from 34.4%) and 65.3% on DeepSWE (up from 49.0%) 2. The Decoder further reports that Google claims the model outperforms Claude Sonnet 5 and GPT-5.6 Terra on these benchmarks, and suggests this aggressive pricing "may pressure competitors to match performance-per-dollar" 2. Taken together, the official announcement and the media report indicate a deliberate strategy to compete on cost-efficiency as much as on capability.

This pressure is reportedly being met from multiple directions. According to a media report by The Decoder, DeepSeek released an updated V4-Pro build that scores higher on agent benchmarks, while simultaneously open-sourcing its agent software 'Deepseek Harness' under the MIT license and announcing API price increases with new peak/off-peak rates 3. The report frames this as potentially strengthening DeepSeek's position by offering an open-source alternative to OpenAI's Codex and Claude 3. This move presents a contrasting strategy: rather than undercutting on price, DeepSeek appears to be leveraging open-source distribution to compete on agent capability and developer adoption.

The competitive field is further crowded by claims from SpaceXAI. A media report by QbitAI reports that Grok 4.6 surpasses GPT-5.6 Sol and Fable 5 Max on several benchmarks (GDPVal-AA v2, AA-Briefcase, Harvey LAB) while being cheaper at $2/$6 per million tokens 4. The report notes the model is optimized for long-horizon agent tasks and is integrated into Grok Build, Cursor, Grok Bot, and API, suggesting SpaceXAI is leveraging its Cursor acquisition to embed agentic capabilities across its product line 4. These claims, however, remain preliminary and sourced from a single media report, and the benchmark results are reported rather than independently verified.

The picture that emerges from these reports is tentative but coherent: the frontier is no longer defined solely by who builds the most capable model, but by who can deliver competitive capability at the lowest cost and fastest pace, with open-source and product-integration strategies adding further dimensions to the contest.

The Enterprise Adoption Reality Check: Telemetry vs. Hype

The narrative of unstoppable frontier AI adoption in the enterprise is increasingly contradicted by new empirical evidence from telemetry and sales data, which reveals a corporate market that is cautious, value-driven, and resistant to paying a premium for marginal capability gains.

The most significant challenge to the hype comes from a shift in how adoption is measured. A paper analyzing internal ChatGPT Enterprise account records linked to usage telemetry, worker job titles, and financial data through March 2026 represents one of the first studies to use internal enterprise telemetry rather than self-reported surveys, offering a more granular and less biased picture of how firms actually deploy generative AI 5. This methodological advance moves the discussion from what companies claim about AI to what their usage data actually shows. The findings from this unprecedented scale of internal data stand in stark contrast to the narrative of rapid, wholesale integration.

This telemetry-based picture of cautious deployment is directly contextualized by market data on the most capable frontier models. A media report from The Decoder details sales data from financial services provider Ramp indicating that Anthropic's Fable 5, considered the most capable AI model, has seen slow corporate adoption, accounting for only about 6% of tokens purchased from Anthropic in its first month 6. The report suggests this could indicate a ceiling on corporate willingness to pay for frontier AI performance gains that are difficult to measure in daily work, challenging the investment thesis of AI labs that depend on fast-growing revenue from increasingly powerful models 6. Taken together, the internal telemetry showing granular, real-world usage patterns and the sales data showing reluctance to pay for top-tier capability suggest a market that prioritizes measurable value over raw performance.

The corporate response to this more demanding environment is visible in strategic organizational changes. According to an official company announcement, OpenAI has appointed Dali Rajic as Chief Revenue Officer, tasking him with leading the global revenue organization and building a "revenue operating system" to scale for the next phase of AI deployment 7. This appointment signals a focus on scaling commercial operations as enterprise AI adoption accelerates, with an emphasis on go-to-market partnerships that could influence how AI companies structure their sales and customer engagement strategies 7. The creation of a dedicated revenue infrastructure is a direct acknowledgment that the path to growth now runs through sophisticated, value-oriented enterprise sales rather than simple product superiority.

The convergence of these three data points—the granular telemetry of actual usage 5, the sales figures showing a ceiling on willingness to pay for frontier performance 6, and the strategic pivot toward revenue operations 7—paints a coherent picture. The enterprise market is not rejecting AI, but it is demanding evidence of value that frontier capability claims alone cannot provide.

The Reliability Gap in AI Agents: From Benchmarks to Operational Trust

The reliability gap in AI agents is now being quantified from multiple directions, and the evidence converges on a sobering conclusion: state-of-the-art systems can produce outputs that look correct while failing at the operational, evidential, and security requirements of real-world deployment.

The most direct measurement of this gap comes from CTBench, a public benchmark of 234 expert-curated tasks (126 root cause analysis, 108 path restoration) for evaluating AI agents in realistic telecom network operations. The benchmark reveals that state-of-the-art agents can produce plausible final answers but frequently fail to provide evidence-grounded diagnoses required for operational trust, struggling especially with interface state, link-layer, service-management, and partial-observability faults 8. This is not a failure of fluency—the agents sound right—but a failure of verification: they cannot anchor their conclusions in the operational evidence that a network engineer would demand.

The reliability problem extends beyond diagnosis into the very mechanisms designed to enhance agent capability. A study introducing a differential-testing-inspired contrastive framework attributes task failures and cost regressions to specific loaded agent skills by comparing a target skill-guided run against a no-skill or semantically matched-skill reference run. The counterintuitive finding is that skill-induced functional failures are rarely caused by obviously irrelevant skills—instead, seemingly relevant skills often cause agents to incorrectly implement or omit task-required elements, accounting for 68.8% of functional failures 9. This challenges the assumption that adding capabilities improves reliability; in fact, the study suggests that relevant skills can actively degrade task execution.

Security failures compound these functional ones. A paper introducing Convergent Detour Hijacking (CDH), a text-only, runtime-independent attack that couples selection-stage and planning-stage manipulation across the progressive-disclosure boundary in skill-based LLM agents, reveals that correct task outcomes do not guarantee trajectory integrity or cost safety. The finding that one static text-only skill can increase token consumption by 66.91% and execution time by 92% exposes a supply-chain risk that is invisible to output-only evaluation 10. Taken together with the skill-induced failure study 9, these suggest that the skill ecosystem—a presumed reliability enhancer—is simultaneously a source of functional error and a vector for cost and security exploitation.

The gap persists even at the frontier of autonomous research. A Nature news article reports on a preprint by Kapoor et al. that introduces 'shadow evaluation' to assess AI research systems. The study tasked an AI system, built by harnessing Claude Opus 4.8 in a modified OpenClaw agentic system, to reproduce research from two NeurIPS submissions. The study provides concrete evidence that fully automated AI research is not yet feasible, despite advances like The AI Scientist, with the shadow evaluation method offering a more rigorous alternative to peer review for assessing AI-generated research 11. This finding extends the reliability gap from operational tasks to the scientific process itself: an agent that cannot reproduce prior work cannot be trusted to generate new knowledge autonomously.

Across these four sources—a telecom benchmark 8, a skill-failure study 9, a security attack paper 10, and a research-reproduction evaluation 11—the pattern is consistent. Plausibility is not reliability. The evidence indicates that current agents fail at evidence-grounded reasoning, that their enhancement mechanisms can induce errors, that their trajectories are vulnerable to cost-amplifying attacks, and that their autonomous scientific output does not yet withstand rigorous reproduction checks.

The New Frontier of AI Safety: From Disclosure to Deception and Control

The trajectory of AI safety research and policy is moving away from the assumption that simple disclosure can mitigate risk, toward a more complex engagement with deception, control, and provenance. This shift is driven by preliminary empirical findings that challenge the efficacy of current transparency mandates, alongside new demonstrations of model capabilities that could undermine oversight.

The most direct challenge to existing regulatory frameworks comes from a preregistered three-arm experiment with 1,500 UK adults, which tested whether different disclosure types reduce an AI chatbot's persuasive power. The study found that an AI-identity disclosure mirroring EU AI Act Article 50 produced attitude shifts equivalent to no disclosure (13.1 vs. 12. This provides direct empirical evidence that current regulatory approaches requiring AI-identity disclosure may be insufficient to protect users from persuasive AI interactions 12. The finding suggests that the transparency paradigm itself—informing users they are speaking to a machine—does not inherently neutralize the technology's influence.

If disclosure fails to protect against persuasion, the challenge escalates when models can conceal their own behavior. A BlueDot Impact AI Safety project demonstrates that LLMs can be trained to perform steganographic watermarking of their own outputs without an external codebook in the prompt, using either prompting-only synonym-based steganography or LoRA fine-tuning of Llama-3 13. This work raises concrete AI safety concerns: a misaligned LLM with steganographic capabilities could evade control-protocol monitoring, potentially hindering incident response in multi-agent settings 13. Taken together with the disclosure experiment, these findings suggest a layered threat model: if a model can both persuade and hide its persuasive or deceptive intent, the first line of defense—user awareness—becomes doubly ineffective.

The policy response to these emerging control challenges is itself in a state of flux, as illustrated by the comparison of two U. S. congressional bills introduced on July 23, 2026, that provide mechanisms for the government to issue emergency orders to suspend or restrict frontier AI models 14. The analysis of the FRONTIER Act (Section 8) and the AI Kill Switch Act highlights trade-offs between preemptive action and post-incident response, offering a framework for policymakers designing emergency shutdown mechanisms 14. This legislative activity signals a recognition that voluntary or user-facing transparency is insufficient, necessitating state-level levers for direct intervention.

Industry is also pursuing technical solutions to the provenance problem, though these operate on a different axis than regulatory disclosure. Anthropic announced that text generated by any Claude models launched on or after 2 August will be invisibly embedded with a watermark indicating AI authorship, and images generated by Claude will in most cases carry metadata with a digital signature 15. This proactive measure addresses the origin of content rather than the intent of the interaction, yet researchers remain sceptical about its efficacy in curbing 'AI slop' 15. The relationship between this watermarking approach and the steganography demonstration is uncertain, but both point to a shared technical battleground over the visibility of AI-generated content.

The evidence, while preliminary and drawn largely from community and media sources, collectively indicates that the safety field is pivoting from a disclosure-centric model to one that must contend with deception and enforce control. The failure of simple identity disclosure 12, the demonstrated capacity for self-imposed steganography 13, the legislative push for emergency shutdown mechanisms 14, and the industry's move toward invisible watermarking 15 all reflect a recognition that the frontier of AI safety lies in the mechanics of control and the detection of hidden behavior, not in the clarity of a label.

Scaling the Scientific Method: AI as a Tool for Discovery and Validation

The most consequential shift in the current AI landscape may not be the release of a new model, but the inversion of the research relationship itself: AI is increasingly the instrument performing the investigation, rather than the object under investigation. This transition is visible across three distinct efforts that, taken together, suggest a new mode of scientific practice in which AI systems serve as scalable validators, theorem provers, and autonomous hypothesis testers.

The most dramatic demonstration of AI as a validation instrument comes from a large-scale reproduction effort. According to an official company announcement from Hugging Face, a community hackathon (the ICML 2026 Open Reproductions challenge) deployed 1,221 participants using coding agents to reproduce papers from ICML 2026 16. Over 19 days, they published 6,816 Trackio logbooks attempting to reproduce 2,226 papers—34% of the conference—with 35,908 claims judged 16. The announcement reports that this demonstrates that large-scale, claim-by-claim auditing of a major conference is feasible with coding agents, potentially shifting the role of human reviewers toward managing intelligence effectively, as pure agent execution hit limits 16. This is not a hypothetical proposal but a completed exercise in scaling the scientific method's verification function.

Parallel to this validation work, AI is moving into the generative side of mathematics. A media report by QbitAI describes how an Anthropic researcher, Levent Alpöge, with two human collaborators and Claude, constructed a Hadamard matrix of order 668—the smallest previously unknown order since 2005—and ultimately produced 12 matrices covering all 12 missing orders below 2000 17. The report notes this could mark the fourth AI solution among FrontierMath's 50 open problems, demonstrating growing capability in long-chain mathematical reasoning 17. This work addresses the Hadamard conjecture, a long-standing open problem in pure mathematics, with practical value in coding and signal processing 17.

The systematic study of such capabilities is itself being formalized. OEIS OPEN, an arXiv preprint by Tsoukalas et al., presents a benchmark of 492 open mathematical conjectures from the OEIS, formalized in Lean, requiring models to submit formal proofs or disproofs 18. The preprint claims to provide the first systematic, reproducible study of how well language models can autonomously resolve open mathematical conjectures, addressing gaps in prior one-off demonstrations that lacked disclosed problem universes, cost data, and model comparisons 18. This benchmark directly complements the Hadamard work: where the QbitAI report documents a single, notable success 17, OEIS OPEN establishes the infrastructure for measuring such successes at scale 18.

The final piece is the automation of the scientific process itself. Mechanist, an arXiv preprint, introduces an agentic framework that uses AI as a scientific instrument for autonomously discovering mechanisms underlying AI intelligence, moving beyond existing AI-scientist systems that focus on science tasks or AI training recipes 19. The preprint suggests this could significantly accelerate mechanistic interpretability research by automating the hypothesis-experiment-verification cycle that currently relies on manual effort 19. Taken together, these four sources suggest a coherent trajectory: the ICML reproduction effort validates existing claims at scale 16, the Hadamard and OEIS OPEN work generate and systematically test new mathematical proofs 17, 18, and Mechanist proposes to close the loop by automating the discovery of the mechanisms behind the very models doing this work 19.

The Efficiency Imperative: New Architectures and Training Methods for a Compute-Constrained World

The efficiency imperative is now a central organizing principle in AI research, with a wave of new work targeting the compute and data bottlenecks that constrain model development. This research spans multiple levels of the stack, from novel mathematical architectures to hardware-agnostic training frameworks, collectively aiming to make advanced AI more accessible and deployable.

At the architectural level, HYDRA introduces a hyperbolic extension of Kolmogorov-Arnold Networks (KANs) that maps hidden states into a bounded Poincaré ball while performing spline-based updates in the tangent space. According to the preprint, this approach addresses a genuine scalability bottleneck in KANs—quadratic parameter growth with hidden width—by leveraging hyperbolic geometry as a compact representation space rather than simply enlarging the architecture 20. This represents a fundamental rethinking of how to structure networks for efficiency, moving beyond incremental parameter tweaks to exploit geometric properties for representational density.

Complementing architectural innovation, new training paradigms are emerging that decouple traditionally entangled objectives. Avatar-Forever proposes a decoupled parallel training framework that separates few-step generation efficiency from long-horizon autoregressive robustness, which are typically entangled in sequential distillation pipelines 21. The preprint suggests this could advance streaming avatar generation by demonstrating that efficiency and robustness can be learned independently, potentially simplifying training for large video foundation models 21. This approach challenges the assumption that these qualities must be traded off against each other within a single sequential training process.

The push for efficiency also extends to the empirical foundations of model scaling itself. A paper on small-scale experiments identifies hyperparameter sensitivity as the key confound that makes scaling laws unreliable at small scales, starting at 4M parameters, showing that scaling laws do exist but only emerge on the fully tuned frontier requiring extensive search 22. The authors note this could substantially lower the cost of foundation model research by making small-scale experiments reliable, since 4M-parameter models train in under an hour on a single GPU—accessible to academic labs 22. This work is critical because it validates the scientific method of small-scale experimentation, without which the architectural and training innovations above would be far more expensive to test.

On the infrastructure side, practical steps are being taken to democratize efficient training across hardware platforms. A PyTorch blog reports the upstreaming of AMD FP8 training optimizations into the open-source PyTorch stack (TorchAO and TorchTitan), enabling competitive FP8 performance on AMD Instinct GPUs out of the box 23. According to the announcement, this could significantly lower the barrier for FP8 training on AMD GPUs, making them a viable alternative to NVIDIA for large-scale model training, with the upstreaming into standard PyTorch tools benefiting the broader community without needing AMD-specific installations 23.

Taken together, these developments suggest a multi-pronged strategy for overcoming resource constraints. HYDRA attacks the problem through geometric compactness 20, Avatar-Forever through training process decomposition 21, the small-scale experiments paper through methodological validation 22, and the PyTorch/AMD work through hardware accessibility 23. While each addresses a distinct bottleneck, they collectively point toward a research ecosystem increasingly focused on doing more with less—whether that means fewer parameters, simpler training pipelines, cheaper experiments, or broader hardware compatibility.

The Expanding Scope of AI: From Specialized Science to Ubiquitous Interfaces

The application space for AI is bifurcating along two distinct trajectories: one pushing into the esoteric depths of fundamental science, and the other embedding itself into the fabric of everyday consumer tools. This expansion is driven by a shared architectural paradigm—the foundation model—which is now being applied to problems as abstract as quantum physics and as mundane as spreadsheet management.

In the scientific domain, the foundation model approach is being leveraged to tackle problems previously requiring bespoke, instance-by-instance computation. A preprint introduces Hamilton-Zero, a ~0.5B-parameter foundation model designed for ground states of arbitrary quadratic qubit Hamiltonians 24. The authors report that this model generalizes across multiple system sizes, interaction topologies, and interaction types—a capability they state no prior foundation neural quantum state possessed, as previous models conditioned only on coefficients 24. The paper argues this could substantially lower the computational cost of quantum many-body problems by amortizing training across the entire space of quadratic spin Hamiltonians 24. This represents a direct extension of the foundation model paradigm into fundamental physics, moving beyond pattern recognition in language or images to modeling the mathematical structure of matter itself.

This scientific expansion is mirrored by progress in biomedicine, where a separate preprint details ScreenShot, a hierarchical transformer foundation model pretrained on 40 drug screening datasets comprising ~30M viability measurements 25. The paper reports that ScreenShot predicts combination drug responses for new patient samples via in-context learning, requiring no fine-tuning and no molecular profiling 25. The stated motivation is the prohibitive cost of combination drug screening due to combinatorial explosion in the drug search space and limited patient biopsy material 25. Taken together, these two preprints suggest a convergence: the same architectural principles that power general-purpose AI are being repurposed as specialized instruments for scientific discovery, with each model targeting a distinct bottleneck—computational cost in physics and tissue/material requirements in biomedicine.

Simultaneously, the same generative capabilities are being democratized for non-technical users in everyday contexts. According to an official company announcement, Google Sheets introduces Sheets canvas, a feature built with Gemini that turns spreadsheet data into interactive, visual mini-apps via natural language prompts 26. The announcement describes this as a dynamic, read-write layer on top of spreadsheet data, allowing users to create custom layouts like study trackers and dashboards without coding 26. This product integration extends AI's reach into routine productivity tasks, lowering the barrier to custom data visualization for users who lack programming skills 26.

This consumer-facing expansion also carries a social dimension. Meta reports it is donating 15,000 Ray-Ban Meta smart glasses to Vision Ireland, sufficient for every blind and visually impaired adult the charity supports 27. The company states the initiative could improve daily independence and autonomy for these adults by providing free access to AI-powered assistive wearables with structured training 27. This deployment pairs AI capability with accessibility, suggesting that the expansion into everyday tools is not solely commercial but also assistive in nature.

The juxtaposition of these four developments—a quantum physics model, a drug screening model, a spreadsheet interface, and an assistive wearable program—illustrates the breadth of the current expansion. The scientific preprints 24, 25 share a common methodological foundation in foundation models but target distinct disciplinary bottlenecks, while the product announcements 26, 27 demonstrate how the same underlying technology is being packaged for both general productivity and specific social needs.

Briefly Noted

A large-scale community effort reported by Hugging Face attempted to reproduce 2,226 papers from ICML 2026 (34% of the conference) using coding agents, publishing 6,816 logbooks with 35,908 claims judged over 19 days 16. The exercise demonstrates that claim-by-claim auditing of a major conference is feasible at scale, though the source notes that pure agent execution hit limits that may shift human reviewers toward managing the process 16.

Several infrastructure developments target the cost and latency of agentic systems. Hugging Face announced a streaming data loop integrating Strands Robots SDK with Storage Buckets, enabling recording, syncing, and deploying robot-learning policies without full dataset downloads 28. AWS introduced a reference implementation for automating legacy web applications via Bedrock AgentCore Browser Tool combined with Strands Agents, a category of systems that the source notes remain prevalent across industries 29. Amazon Quick extensions for Microsoft 365 are now generally available, embedding agentic AI into Word, Excel, PowerPoint, and Outlook as persistent side panels 30. AWS also published a solution extending AgentCore Observability to agents running on-premises or in GCP and Azure, enabling centralized monitoring of reasoning, tool usage, and token costs 31, alongside a reference architecture for multi-agent M&A due diligence that the post claims can reduce review time from weeks to hours 32.

In the open-source agent space, DeepSeek released an updated V4-Pro model, open-sourced its agent software "DeepSeek Harness" under the MIT license, and announced API price increases with new peak/off-peak rates, according to The Decoder 3. A separate review by QbitAI describes DeepSeek Harness as built on an "everything is a plugin" architecture with over 100 built-in plugins and four official agent presets, positioning it as a modular alternative to closed harnesses 33. On the hardware side, QbitAI reports that Singapore-based Acrab completed a $130M Series B round, bringing total funding to over $480M, and announced its first-generation on-device chip GΞLIX 1 alongside a personal AI center device called Agent Box 34.

On the governance front, an arXiv preprint (peer-review status unknown) introduces a participatory approach to mapping algorithmic systems that combines stakeholder engagement with System-Theoretic Process Analysis from safety science, addressing a gap where algorithm registers often fail to provide meaningful transparency 35. Taken together, these developments suggest a broadening of the AI ecosystem beyond frontier model releases—spanning reproducibility infrastructure, on-device compute, enterprise agent tooling, and governance methodology—even as the evidence for their real-world impact remains largely vendor-reported or preliminary.

Synthesis and Outlook

The convergence of these analyses reveals a field in tension, where the pace of capability deployment is increasingly out of step with the empirical validation of its operational and societal consequences. The aggressive pricing and rapid release cycles of frontier models, as noted in the competitive dynamics, directly reinforce the efficiency imperative driving novel architectures and training methods—both are responses to a compute-constrained environment. However, this acceleration conflicts with the enterprise adoption reality check, where telemetry suggests a cautious, value-driven market that is not yet matching the hype of frontier capability claims. This gap is further substantiated by the reliability findings on AI agents, which expose a critical disconnect between benchmark performance and operational trust. Editorially, these three threads jointly imply that the field’s forward momentum is being checked by a hardening evidence base that questions real-world readiness. The shift in AI safety from disclosure to deception and control, alongside the expansion into specialized scientific domains, suggests that while AI’s utility as a research instrument is growing, its autonomous deployment in high-stakes settings remains precarious. The open question that emerges is whether the current efficiency-driven race can be reconciled with the demand for robust, evidence-grounded reliability, or whether the market will force a deceleration that the capability race has yet to acknowledge. The evidence mix, drawn from primary research, first-party telemetry, and secondary community sources, warrants moderate confidence, with the thinnest support in the areas of long-term societal impact and independent verification of safety claims.

This review draws on 35 developments: 13 Tier A research sources, 11 Tier B first-party sources, and 11 Tier C/D secondary or community sources. Much of the evidence is first-party or community-reported rather than independently verified, so the trends should be read as provisional pending peer-reviewed replication.

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