
Microsoft MVP (Business Application & Data Platform) | Microsoft Certified Trainer (MCT) | Microsoft SharePoint & Power Platform Practice Lead | Power BI Specialist | Blogger | YouTuber | Trainer
In a recent YouTube video, Dhruvin Shah [MVP] demonstrates a new preview feature in Microsoft Copilot Studio called the Computer Use Agent. The video shows how this AI-driven tool lets an agent interact with both websites and desktop applications using plain language instructions, which removes the need for manual step recording that traditional tools require. As a result, organizations can potentially automate repetitive UI tasks faster and with less upfront engineering. However, the feature is currently in preview and available only to US tenants, so broader rollout and enterprise adoption will take additional time.
The video explains that the Computer Use Agent operates in a three-stage loop: Perception → Reasoning → Action. First, the agent observes the screen by capturing pixels and UI elements to build context; next, it reasons about the right steps to take; finally, it executes those steps using virtual mouse clicks and keyboard inputs. Consequently, this approach lets the agent adapt to changes in the interface rather than failing when a recorded sequence no longer matches the UI. This model differs from deterministic automation in that the AI must interpret visual cues and respond, which introduces both flexibility and the need for careful instruction design.
Dhruvin walks through a live demo where the agent performs automated inventory data entry on a web form, showing how it navigates, fills fields, and self-corrects when input mismatches occur. The demonstration highlights how the tool handles multi-step workflows and shows examples of data extraction and submission without any recorded macro. Thus, viewers get a practical sense of the agent’s capabilities and immediate limitations.
Furthermore, the setup process in the video is straightforward: create or open an agent in Copilot Studio, add the computer use tool, describe the task in natural language, and configure execution options like model selection and execution environment. Options include choosing between the OpenAI CUA model or Claude Sonnet 4.5, and picking a hosted browser, an Azure Cloud PC, or custom infrastructure. Consequently, teams can balance convenience, cost, and security when deciding where automation runs.
The video emphasizes several practical advantages over classic robotic process automation. For example, natural language configuration reduces time spent on recording and scripting, while AI-driven interpretation makes the agent more resilient to small UI updates. As a result, maintenance overhead can drop because the agent reasons about actions rather than replaying brittle step sequences.
At the same time, these gains come with tradeoffs. Traditional RPA delivers deterministic behavior and precise replayability, which remains valuable for regulated or audit-heavy processes. Therefore, organizations should weigh ease of authoring and adaptability against the need for repeatable, fully auditable results when choosing between AI-driven agents and classic RPA solutions.
Importantly, Dhruvin provides an honest review that outlines current limitations. Performance depends heavily on instruction clarity, and ambiguous prompts can produce inconsistent results, so teams must invest time in refining prompts and testing edge cases. Additionally, because the feature is in preview, reliability and feature completeness are still evolving.
Security and governance also present challenges: automated UI control can access sensitive data and credentials, so enterprises need robust logging, credential management, and isolation. While the tool includes session replay and action logs, organizations must implement policies and monitoring to ensure safe production use. Moreover, latency, model cost, and differences between model choices like OpenAI and Claude Sonnet 4.5 affect total cost and behavior, creating further tradeoffs.
For teams considering this technology, the video recommends iterative testing and a clear escalation path for failures so that human operators can step in when automation struggles. Additionally, choosing the right execution environment—hosted browser, Azure Cloud PC, or custom machines—depends on security needs and the complexity of desktop interactions. Consequently, planning for observability, such as session replays and run summaries, is essential for governance and troubleshooting.
Looking forward, the video suggests that continued model improvements and broader availability will make this approach more viable for many use cases. In the meantime, organizations should pilot the feature on low-risk workflows, measure outcomes, and compare costs and reliability with established RPA tools. Overall, Dhruvin’s walkthrough offers a balanced, practical introduction that highlights both the promise and the careful planning required to adopt the Computer Use Agent successfully.
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