This project automates the process of applying and enforcing a Bumble Age Filter during profile browsing sessions on Android devices. It removes the repetitive manual filtering steps and ensures users consistently engage with profiles within the desired age range. The Bumble Age Filter automation helps streamline targeting while maintaining stable, repeatable interactions.
This automation tool scans Bumble profiles on an Android device, reads on-screen age data, and automatically applies logic to enforce age-based actions such as liking, passing, or pausing interactions. It eliminates the need for repetitive manual filtering and delivers consistency for users or teams running high-volume Android workflows.
- Automatically parses visible profile age data using on-device text recognition.
- Applies configurable rules to accept or reject profiles based on min/max thresholds.
- Designed for stable Android automation using UI Automator or Appium flows.
- Reduces manual workload in repetitive browsing environments.
- Delivers predictable targeting logic for controlled engagement patterns.
| Feature | Description |
|---|---|
| Configurable Age Thresholds | Users define min/max ranges that guide automated decisions. |
| On-Device OCR Parsing | Extracts age text from Bumble profile UI using OCR or accessibility nodes. |
| UI Automator Navigation | Moves through Bumble screens without ADB-heavy operations. |
| Swipe Automation | Performs like/pass actions based on configured age rules. |
| Rule-Based Logic Engine | Applies accept/reject logic cleanly and consistently. |
| Session Scheduler | Schedules browsing sessions with time windows and cooldowns. |
| Retry & Recovery Manager | Restarts failed flows and prevents stuck UI conditions. |
| Appilot Input Stabilizer | Ensures taps, swipes, and scrolls are accurate and consistent. |
| Analytics & Logging | Records outcomes, mismatches, and automation decisions. |
| Multi-Device Queue Support | Allows scaling sessions across many Android devices. |
- Input or Trigger — The automation starts via scheduler or manual run, loading age-range settings.
- Core Logic — The system parses profile age from on-screen elements, evaluates it against thresholds, and chooses actions.
- Output or Action — Executes swipe/like/pass gestures, logs the result, and moves to the next profile.
- Other Functionalities — Supports session throttling, safe delays, and automatic recovery from UI dead-ends.
- Safety Controls — Implements human-like intervals, randomized idle windows, and fail-safe quit conditions.
Language: Python Frameworks: UI Automator, Appium, Appilot Tools: OCR engine, device controller, scheduler, logger Infrastructure: Local device farm, containerized workers, message queue
automation-bot/
├── src/
│ ├── main.py
│ ├── automation/
│ │ ├── tasks.py
│ │ ├── scheduler.py
│ │ └── utils/
│ │ ├── logger.py
│ │ ├── proxy_manager.py
│ │ └── config_loader.py
├── config/
│ ├── settings.yaml
│ ├── credentials.env
├── logs/
│ └── activity.log
├── output/
│ ├── results.json
│ └── report.csv
├── requirements.txt
└── README.md
- Independent users use it to automate age-based filtering, so they can maintain consistent targeting.
- Automation teams use it to manage multiple Android devices, so they can test or validate age-rule behavior at scale.
- Researchers use it to study interaction patterns, so they can collect structured age-filter outcomes.
- QA engineers use it to generate repeatable profile-swipe sequences, so they can test Android UI stability.
Does this interact with user data? It processes only on-screen age text needed for filtering, based on device-level automation.
Can thresholds be customized? Yes, all age rules are controlled through the config file.
Does it require root? No, it works with standard Android automation frameworks.
Is OCR mandatory? Only if the device does not expose age text via accessibility nodes.
Can it run on multiple devices? Yes, it supports queue-based scaling across device clusters.
Execution Speed: Typically processes 20–30 profile actions per minute under common device farm conditions. Success Rate: Around 93–94% accuracy across long-running sessions with built-in retries. Scalability: Handles 300–1,000 Android devices using sharded queues and horizontally scaled workers. Resource Efficiency: Each worker targets ~25% CPU and 300–400 MB RAM per device session. Error Handling: Uses structured logs, retry loops, exponential backoff, state snapshots, and automated recovery routines.
