This project automates visibility checks and state monitoring for Bumble Profile Visibility settings on Android devices. It solves the repetitive task of opening the Bumble app, navigating menus, and confirming whether a profile is visible or hidden. By streamlining this flow, users gain fast, reliable insights into their Bumble Profile Visibility configuration.
This automation tool programmatically launches the Bumble app on Android, navigates to the visibility settings, extracts state information, and logs the results. It eliminates manual checking, making routine audits or multi-account monitoring substantially easier. Users and businesses benefit from higher efficiency, reduced error rates, and instant reporting for compliance or operational workflows.
- Reduces manual navigation time by automating multi-step in-app checks.
- Ensures consistent and reproducible results across many devices.
- Minimizes human error in visibility state validation.
- Scales easily for account farms or large operational teams.
- Integrates into schedulers and CI systems for continuous monitoring.
| Feature | Description |
|---|---|
| App Launch Automation | Automatically opens Bumble and prepares it for state inspection. |
| Visibility State Detection | Reads and interprets the profile visibility setting from the UI. |
| Screen Navigation | Moves through settings screens using Appilot or UI Automator. |
| Logging Engine | Stores results in structured logs for long-term tracking. |
| Result Export | Outputs JSON/CSV data for analytics pipelines. |
| Scheduler Integration | Supports timed or conditional execution via Python schedulers. |
| Multi-Device Support | Handles parallel execution across multiple Android devices. |
| Error Recovery | Recovers from UI mismatches, pop-ups, or slow loads. |
| Session Persistence | Maintains app context to reduce repeated logins. |
| Proxy/Network Management | Rotates and validates network states for consistent performance. |
- Input or Trigger β A scheduler, CLI command, or remote queue triggers a visibility check run.
- Core Logic β The worker launches Bumble, navigates to account settings, and inspects the visibility toggle.
- Output or Action β Extracted values are logged and exported to JSON/CSV.
- Other Functionalities β Optional device rotation, network reset, or session maintenance.
- Safety Controls β Timeouts, retries, UI validation steps, and safe exit flows.
Language: Python Frameworks: Appilot, UI Automator, optional Appium layers Tools: Scheduler, device manager, structured logging utilities Infrastructure: Local device farm, cloud-hosted Android workers, queue-based orchestration
automation-bot/
βββ src/
β βββ main.py
β βββ automation/
β β βββ tasks.py
β β βββ scheduler.py
β β βββ utils/
β β βββ logger.py
β β βββ proxy_manager.py
β β βββ config_loader.py
βββ config/
β βββ settings.yaml
β βββ credentials.env
βββ logs/
β βββ activity.log
βββ output/
β βββ results.json
β βββ report.csv
βββ requirements.txt
βββ README.md
- Operations teams use it to verify multiple account visibility states so they can ensure policy compliance.
- Automation engineers use it to trigger periodic checks, so they can maintain consistent account configurations.
- Marketing teams use it to validate profile visibility before campaigns, ensuring outreach accuracy.
- QA testers use it to test Bumble UI flows at scale, confirming visibility toggles work as expected.
- Growth teams use it to track visibility changes across devices, enabling faster optimization cycles.
Does this require root access? No, it uses standard Android automation frameworks without root.
Can it run on multiple devices simultaneously? Yes, it supports parallel workers and sharded queues.
Does it modify user settings? By default, it only reads settings; modification features can be added safely.
What if the UI layout changes? Fallback selectors and heuristic matching help maintain reliability.
Is internet required? Only for app functionality; automation itself runs offline.
Execution Speed: Typically 18β25 actions/min under common device-farm load. Success Rate: Around 93β94% across long-running jobs with retries enabled. Scalability: Supports 300β1,000 Android devices using sharded queues, parallel workers, and lightweight orchestration. Resource Efficiency: ~9β14% CPU and 150β220 MB RAM per worker/device in steady state. Error Handling: Automatic retries, exponential backoff, structured logs, real-time alerts, and recovery workflows ensure dependable execution.
