Can AI Agents Really See and Do? Introducing AgentVista

Author: Denis Avetisyan


A new benchmark challenges multimodal AI to master complex tasks in realistic, visually-rich environments requiring long-term planning and tool use.

The system demonstrates an ability to ground complex queries in realistic visual environments, prompting agents to utilize tools and engage in multi-step reasoning to arrive at unique and verifiable solutions.
The system demonstrates an ability to ground complex queries in realistic visual environments, prompting agents to utilize tools and engage in multi-step reasoning to arrive at unique and verifiable solutions.

AgentVista evaluates generalist agents on long-horizon, visually-grounded tasks involving complex tool interaction in challenging, realistic scenarios.

Despite advances in artificial intelligence, current benchmarks struggle to assess multimodal agents’ ability to solve complex, real-world tasks demanding extended reasoning and tool use. To address this gap, we introduce AgentVista: Evaluating Multimodal Agents in Ultra-Challenging Realistic Visual Scenarios, a new benchmark featuring 25 sub-domains designed to rigorously evaluate generalist agents on long-horizon tasks involving both visual grounding and natural hybrid tool interaction. Our evaluation of state-of-the-art models reveals significant limitations, with even the best achieving only 27.3% accuracy, and highlights the need for substantial progress in agentic capabilities. Will AgentVista accelerate the development of truly capable and reliable multimodal agents ready to tackle ultra-challenging, realistic problem-solving scenarios?


The Fragility of Intelligence: Beyond Narrow Expertise

Contemporary artificial intelligence frequently demonstrates remarkable proficiency in highly specific domains – mastering games like Go, identifying objects in images, or even generating human-quality text. However, this success often proves brittle when faced with tasks requiring broader understanding or adaptation. Unlike human intelligence, which seamlessly integrates knowledge and skills across diverse contexts, current AI systems typically lack the capacity for generalizable reasoning. They struggle with situations demanding common sense, analogical thinking, or the application of learned principles to novel problems – essentially, the ability to transfer knowledge beyond the narrowly defined parameters of their training. This limitation highlights a fundamental gap between achieving narrow AI and realizing the long-term goal of artificial general intelligence, where systems can exhibit cognitive flexibility and solve a wide range of challenges with human-level competence.

The pursuit of artificial general intelligence demands a fundamental shift in how capabilities are assessed. Current benchmarks, while useful for tracking progress in specific areas, often present overly simplified problems divorced from the messy realities of everyday life. True generalist AI must demonstrate proficiency not merely in isolated tasks, but in navigating complex, open-ended scenarios requiring adaptability, common sense reasoning, and the integration of diverse skills. Researchers are increasingly focusing on evaluations that mirror this complexity – environments featuring ambiguous goals, incomplete information, and the need for long-term planning. These new tests aim to move beyond achieving high scores on contrived problems and instead reveal an agent’s capacity to function robustly and intelligently in the face of genuine uncertainty, ultimately determining if a system can truly generalize its knowledge to novel situations.

Current evaluations of artificial intelligence often prioritize performance on isolated tasks, neglecting the crucial ability to effectively combine and utilize multiple tools over time. These benchmarks typically assess a system’s proficiency with a single instrument or a limited sequence of actions, failing to capture the dynamic, iterative process of problem-solving found in real-world scenarios. A truly generalist AI needs to not only know how to use various tools, but also to intelligently orchestrate them – deciding when and how to apply each one in a prolonged, adaptive interaction to achieve a complex goal. This requires assessing an agent’s planning capabilities, its ability to learn from experience, and its resilience to unexpected challenges – aspects largely absent from existing, static evaluation suites.

This VisItask challenges an agent to perform complex, grounded reasoning within a home-renovation scenario by matching flooring styles, verifying room details, retrieving product specifications, and calculating the final cost through interleaved tool use.
This VisItask challenges an agent to perform complex, grounded reasoning within a home-renovation scenario by matching flooring styles, verifying room details, retrieving product specifications, and calculating the final cost through interleaved tool use.

AgentVista: A Rigorous Crucible for Generalist AI

AgentVista is a newly developed benchmark intended to provide a comprehensive evaluation of generalist multimodal agents operating within realistic, long-horizon scenarios. Unlike existing benchmarks focused on isolated task completion, AgentVista assesses an agent’s capabilities across extended interactions, requiring sustained planning and execution. The benchmark is designed to move beyond simple perceptual or reasoning skills and instead measure an agent’s capacity to manage complex, multi-step objectives in dynamic environments. This focus on long-horizon tasks aims to more accurately reflect the challenges of real-world agent deployment and provide a more nuanced understanding of agent performance than is possible with shorter, more constrained evaluations.

AgentVista differentiates itself from existing benchmarks by focusing on evaluating an agent’s performance across extended interaction sequences, rather than isolated task completions. This involves assessing the agent’s capability to formulate multi-step plans, reliably execute those plans utilizing various tools, and dynamically adjust its tool selection and approach in response to evolving circumstances or unexpected outcomes. The benchmark specifically measures an agent’s ability to maintain coherent behavior and achieve goals over a series of interconnected actions, requiring sustained reasoning and adaptability beyond single-turn problem-solving.

AgentVista utilizes a standardized Benchmark Evaluation process to facilitate consistent and comparable assessment of multimodal agent performance. This process involves a defined set of long-horizon scenarios and metrics for evaluating planning, execution, and tool use adaptation. Initial evaluations demonstrate the benchmark’s difficulty; the highest-performing model achieved an overall accuracy of only 27.3%, indicating a significant gap between current agent capabilities and robust generalist performance in complex, realistic environments.

AgentVista benchmarks multimodal agents across a diverse set of [latex]7[/latex] major categories-Commerce, Geography, Entertainment, Technology, Society, Academics, and Culture-and [latex]25[/latex] sub-domains, providing a comprehensive evaluation of realistic agent capabilities.
AgentVista benchmarks multimodal agents across a diverse set of [latex]7[/latex] major categories-Commerce, Geography, Entertainment, Technology, Society, Academics, and Culture-and [latex]25[/latex] sub-domains, providing a comprehensive evaluation of realistic agent capabilities.

The Cornerstone of Intelligence: Orchestrating a Symphony of Tools

Effective long-horizon tool use in autonomous agents necessitates the coordinated application of multiple tools, including web search for information retrieval, image search for visual data processing, and code interpreter for computational tasks. This integration is not simply about accessing these tools individually, but about chaining them together in a sequence to address complex, multi-step problems. For instance, an agent might use web search to identify relevant data sources, then utilize code interpreter to analyze that data, and finally employ image search to verify findings with visual evidence. The ability to dynamically orchestrate these tools – selecting the appropriate one for each sub-task and passing data between them – is crucial for achieving robust and reliable performance on extended reasoning challenges.

Effective agent operation hinges on the ability to dynamically select the optimal tool for each stage of a multi-step task. This necessitates a mechanism beyond simple tool invocation; the agent must assess the current task requirements and intelligently choose from available tools – such as web search, code interpretation, or image analysis – to achieve the desired outcome. This dynamic selection process is not merely about having access to tools, but rather about reasoning about when and how to apply them in a sequence to solve a complex problem. Failure to correctly identify the appropriate tool at each step directly impacts overall task success and introduces errors that propagate through the workflow.

Initial evaluations of agent tool use demonstrate consistent failure modes across several categories, including inability to correctly invoke tools (`Tool Use Failure`), generation of factually incorrect information (`Knowledge Hallucination`), and misapplication of defined operational parameters (`Constraint Misinterpretation`). Performance benchmarks on the AgentVista evaluation suite reveal limited capabilities in open-source models; DeepEyes-v2-7B achieved an accuracy of 10.05%, while Qwen3-VL-235B attained 12.92%. These results indicate a significant gap between current model performance and reliable long-horizon task completion requiring complex tool orchestration.

Analysis of code interpreter calls across four multimodal models reveals that cropping is the most common image manipulation operation, indicating a strong reliance on localized visual grounding for subsequent reasoning.
Analysis of code interpreter calls across four multimodal models reveals that cropping is the most common image manipulation operation, indicating a strong reliance on localized visual grounding for subsequent reasoning.

Perception and Architecture: The Bedrock of Intelligent Action

Successful interaction with the physical world fundamentally relies on an agent’s ability to accurately perceive its surroundings, yet even advanced AI systems frequently struggle with visual misidentification. This susceptibility to error isn’t simply a matter of imperfect image recognition; it directly impacts an agent’s capacity to effectively utilize tools. For example, mistaking a hammer for a wrench, or failing to recognize the operable end of a screwdriver, immediately compromises the agent’s ability to complete a task. This highlights a critical bottleneck in AI development – a robust understanding of visual data isn’t merely about labeling objects, but about discerning their affordances – what actions can be performed with or on them – and correctly associating those affordances with the intended goal. Consequently, improving visual perception remains paramount to building AI systems capable of reliable and adaptable tool use in complex environments.

AgentVista’s results demonstrate a clear correlation between an AI’s underlying model architecture and its capacity for successful tool use. Open-source models, while offering accessibility and customization, frequently exhibit limitations in complex reasoning and generalization, impacting their performance on nuanced tasks. Conversely, closed-source models, often trained on significantly larger datasets and employing proprietary techniques, generally achieve higher accuracy but remain largely inaccessible for independent research or modification. The varied strengths and weaknesses observed across both model types suggest that no single architecture currently dominates, and ongoing development in both open and closed ecosystems is crucial for advancing the capabilities of generalist AI systems. This interplay highlights the importance of considering architectural design as a key factor when evaluating and deploying AI agents in real-world applications.

The pursuit of artificial general intelligence hinges on overcoming current limitations in agent perception and reasoning, demanding systems capable of consistently accurate environmental interpretation and tool utilization. Recent evaluations, such as those conducted on the AgentVista platform, highlight the critical need for robust AI architectures; while progress is being made, even the highest-performing closed-source model, Gemini-3-Pro, currently achieves an overall accuracy of only 27.3%. This benchmark underscores the substantial gap between current capabilities and the reliability demanded for truly generalist systems, suggesting that significant advancements in both perceptual accuracy and model design are paramount for realizing AI agents capable of seamlessly interacting with and navigating complex real-world scenarios.

Analysis of errors across four multimodal models on AgentVista reveals that visual misidentification is the primary failure mode, suggesting a common limitation in grounding to fine-grained visual details.
Analysis of errors across four multimodal models on AgentVista reveals that visual misidentification is the primary failure mode, suggesting a common limitation in grounding to fine-grained visual details.

AgentVista, as presented in the study, doesn’t simply test an agent’s ability to see and act; it probes its capacity for sustained, intelligent interaction with a complex world. This echoes Geoffrey Hinton’s sentiment: “The fundamental thing is, if you want to learn something, you have to be able to represent it.” The benchmark’s focus on long-horizon tool use demands precisely this – an agent must internally represent the environment, the tools available, and the sequence of actions needed to achieve a goal. Aesthetics, in this context, aren’t merely visual; they reside in the elegance with which an agent navigates these complexities, demonstrating a deep understanding of its task and surroundings. The study subtly reveals that interface consistency, in the form of predictable tool behavior, is a form of respect for the agent’s ‘understanding’ of the world.

The Road Ahead

AgentVista, as a benchmark, does not simply measure capability; it exposes the persistent fragility inherent in attempts to bridge perception and action. The focus on long-horizon tasks, and particularly those demanding tool interaction, reveals a critical truth: current multimodal agents often excel at isolated feats of recognition but falter when required to weave these into a coherent, extended narrative of purposeful behavior. The elegance of a system isn’t found in what it can do, but in what it chooses not to do – the superfluous actions pruned by a deep understanding of the task at hand.

Future work must move beyond the accumulation of skills and address the fundamental problem of compositional generalization. An agent that has ‘seen’ a hammer and a nail, and even ‘used’ them separately, is not necessarily equipped to construct a shelf. The challenge lies in fostering a system that can infer the intent behind an action, and adapt its behavior accordingly. This demands a move away from purely data-driven approaches and towards systems capable of rudimentary causal reasoning.

Ultimately, the ideal system will not merely respond to visual stimuli, but anticipate them. It will understand that a cluttered workbench is not simply a collection of objects, but a potential source of both opportunity and obstruction. Such a system would not shout its capabilities; it would whisper them through the efficiency and grace of its actions, a testament to the harmony between form and function.


Original article: https://arxiv.org/pdf/2602.23166.pdf

Contact the author: https://www.linkedin.com/in/avetisyan/

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2026-02-28 22:21