Computer use automation

AI agents that operate your existing software

Screen perception, UI control, full audit trails — inside sandboxed environments with least-privilege access. Not a chatbot. Not RPA. A production system.

The problem

Your software works. It just can't talk to anything else.

No API, no roadmap for one

Your ERP, medical records system, or accounting platform works fine — but it was never designed to be automated. No API, no webhooks, no integration layer. The vendor has no plans to add one. Unlike modern business tools built API-first, legacy software was designed for humans, not machines. Your team operates it manually because there has never been another option.

RPA breaks when the UI changes

You tried robotic process automation. It worked — until a button moved, a dialog changed, or the vendor pushed an update. Traditional RPA relies on brittle selectors and hardcoded coordinates. One pixel shift and the whole workflow stops. Computer use agents read the screen like a human — they understand context, not coordinates.

Security without structure

You need automation, but you also need control. Who approved the action? What did the agent access? Where is the audit trail? When 80% of organisations report risky agent behaviours and the EU AI Act's high-risk rules take effect August 2026, moving fast and figuring it out later is not a strategy. Governed automation needs to be built in from day one.

How it works

From manual operation to autonomous execution

1

Workflow audit

I map the manual workflow your team runs today — every screen, every decision point, every exception. We identify which steps can be automated immediately and which need human approval gates. The goal isn't to automate everything; it's to automate the right things safely.

Automation scope map
2

Security architecture

Every agent gets a sandboxed environment — an isolated, containerised desktop that cannot reach your network or files beyond what is explicitly configured. Credentials go into per-task vaults with least-privilege scoping. Human-in-the-loop gates are defined for every high-stakes action.

Security specification
3

Build & validate

Production development with structured error handling, confidence thresholds, and fallback paths. The agent doesn't just click — it verifies outcomes, retries on failure, and escalates when confidence drops. You see working automation on real screens weekly.

Working agents
4

Deploy & monitor

Ship to production with full observability — every screen captured, every action logged, every decision traceable. Monitoring dashboards alert on anomalies. The system self-reports its health and human oversight is always one click away.

Observable production system
Market reality

The gap between demo and production

0–38%
Platform benchmark success

That's the success rate of leading computer use agents on complex desktop tasks in independent benchmarks. Impressive demos, but far from production-grade. The gap from demo to 99%+ reliability is engineering — error handling, fallback logic, confidence thresholds, and the same governance patterns that make any AI system production-ready.

0%
Report risky agent behaviours

Of organisations deploying AI agents. Only 47% of Fortune 500 deployments have proper security controls. Sandboxed environments, least-privilege access, and immutable audit trails are not optional — they are the baseline.

0%
Enterprise apps with AI agents by 2026

Up from less than 5% in 2025, according to Gartner. The demand is real — but most deployments lack the engineering discipline to run safely at scale. Research-grade data systems and custom business tools face the same governance challenge.

Tech stack

Built for security

Computer use
Claude Computer UseGPT Agent Modescreen perceptionUI interaction
Execution
Dockersandboxed environmentscontainerised desktopsleast-privilege vaults
Browser automation
Playwrightbrowser-useheadless Chromeweb extraction
Governance
Audit trailshuman-in-the-loop gatesconfidence thresholdsmonitoring dashboards
Frequently asked questions

Common questions

How is this different from traditional RPA?

Traditional RPA (UiPath, Automation Anywhere) relies on brittle selectors — hardcoded element IDs, pixel coordinates, and rigid scripts that break when the UI updates. Computer use agents see the screen the way a human does: they read labels, understand layout context, and adapt to interface changes. More importantly, RPA automates clicks. Computer use agents make decisions — they can handle exceptions, navigate unexpected dialogs, and escalate to a human when confidence is low. It's the difference between a macro and an intelligent system.

How do you ensure security when giving AI agents computer access?

Every agent runs in an isolated, sandboxed environment — a containerised desktop that cannot reach your network, your files, or any system beyond what is explicitly configured. Credentials are stored in per-task vaults with least-privilege scoping: an agent that processes invoices gets access to the accounting software and nothing else. Human-in-the-loop approval gates pause execution before any high-stakes action — sending an email, modifying a record, initiating a payment. Every screen the agent sees and every action it takes is recorded in an immutable audit trail. Whether the agent operates a financial platform or a government portal, the security architecture is the same.

What types of software can computer use agents automate?

Any software with a graphical interface — including legacy ERPs, medical records systems, proprietary accounting platforms, HR tools, government portals, and industry-specific applications that have no API and no integration layer. The agents also handle browser-based workflows (form filling, data extraction, web research), email automation (reading, triaging, drafting replies with approval gates), and cross-system workflows where data must move between multiple disconnected applications. If a human can operate it through a screen, an agent can too. For systems that do have APIs, API-based automation is more efficient — we help you choose the right approach.

Can AI agents really operate legacy software reliably?

Platform-level computer use agents (ChatGPT Agent Mode, Claude Computer Use) achieve 14–38% success rates on complex desktop tasks in benchmarks. Production-grade reliability requires engineering around the agent: structured error handling, retry logic with exponential backoff, fallback paths for edge cases, confidence thresholds that trigger human escalation, and monitoring dashboards that alert on anomalies. The agent is one component — the reliability comes from the system architecture. The same production engineering discipline applies to automated research systems.

What about EU AI Act compliance for automated agents?

The EU AI Act's high-risk system requirements take effect August 2, 2026. Article 14 mandates human oversight, Article 12 requires comprehensive audit trails, and penalties reach 35 million EUR or 7% of global turnover. Computer use agents are built with compliance as a structural feature: human approval gates satisfy Art. 14, immutable action logs satisfy Art. 12, and sandboxed execution with least-privilege access satisfies risk management requirements under Art. 9. These are the same governance patterns used in AI workflow automation — compliance is a byproduct of building it right.

Your legacy software has untapped potential.

Let's identify the manual workflow where computer use automation creates the biggest return.