How to Control a Phone with AI: A Complete AutoGLM Agent + Mobile Execution Guide
“Hand-poking a phone” does not mean physically tapping a screen.
In engineering terms, it means allowing an AI Agent to understand a mobile UI and execute actions such as tapping, swiping, and typing on its own.
AutoGLM is one of the very few open-source AI Agent frameworks designed specifically for mobile control scenarios.
Instead of relying on fixed scripts or hard-coded rules, it enables AI to see the screen, reason about the current state, and act like a human user.
This tutorial is written for an official tech documentation page.
It focuses on real implementation details, reproducibility, and deployment best practices.
What Does “AI Hand-Poking a Phone” Mean?
In one sentence:
Hand-poking a phone = AI Agent + real mobile execution
The key difference from traditional automation is that:
- You do not write fixed scripts
- You do not rely on static coordinates
- The AI first understands the current screen, then decides what to do next
AutoGLM’s core philosophy is simple:
Let AI operate phones like a human, not like a rule engine.
How AutoGLM Works Internally
AutoGLM runs as a continuous perception–decision–action loop:
Task Goal
↓
AI Agent (Understanding & Reasoning)
↓
Screen Capture
↓
State Evaluation
↓
Action Generation
↓
ADB Execution on Android
↓
UI Changes → Loop Continues
The loop stops only when the task is completed or a predefined limit is reached.
System Architecture Overview
A production-ready AutoGLM mobile agent typically includes:
Vision + Reasoning Model
↓
AutoGLM Agent (Decision Core)
↓
Screen Capture Module
↓
Action Instructions (Tap / Swipe / Input)
↓
ADB Execution Layer
↓
Android Device (Emulator or Real Phone)
In this setup:
-
The Agent is the brain
-
ADB is the hand
-
The phone is the real execution environment
Environment Requirements
Hardware / Infrastructure
-
A VPS or local Linux/macOS machine
-
Android Emulator or physical Android device
-
Stable internet connection
💡 In real-world deployments, running AutoGLM on a LightNode VPS is highly recommended, as it provides a stable, always-on environment well suited for long-running AI Agent tasks.
In practice, the VPS + Android Emulator combination offers:
24/7 availability
Higher stability
Easy horizontal scaling
Software Dependencies
-
Python 3.10+
-
Git
-
Android Debug Bridge (ADB)
-
Android Emulator (Android Studio Emulator recommended)
-
GPU is optional (CPU-only mode works)
Step 1: Prepare the Android Device and ADB
Install ADB
sudo apt update
sudo apt install adb
Verify the connection:
adb devices
Expected output:
emulator-5554 device
This confirms that AutoGLM can interact with the device.
Configure the Android Emulator
Recommended settings:
-
Fixed screen resolution (e.g., 1080×1920)
-
Auto-rotation disabled
-
Developer mode enabled
These settings significantly improve Agent stability.
Step 2: Install AutoGLM
Clone the official repository:
git clone https://github.com/zai-org/Open-AutoGLM.git
cd Open-AutoGLM
Create and activate a virtual environment:
python3 -m venv venv
source venv/bin/activate
Install dependencies:
pip install -r requirements.txt
Step 3: Configure the AutoGLM Agent
AutoGLM uses configuration files to control Agent behavior.
Example configuration:
task:
goal: "Open the app and navigate to the main page"
max_steps: 30
device:
type: android
adb_path: adb
agent:
model: vision-language
temperature: 0.2
Key points:
-
goal must be clear and verifiable
-
max_steps prevents infinite loops
-
Lower temperature improves decision consistency
How AutoGLM Understands the Screen
Step 1: Capture the Screen
adb exec-out screencap -p > screen.png
This screenshot serves as the Agent’s visual input.
Step 2: Vision + Decision Prompt
A typical structured prompt looks like this:
You are an AI Agent controlling an Android phone.
Analyze the current screen and decide the next best action
to achieve the task goal.
Respond strictly in the following JSON format:
{
"action": "tap | swipe | input | wait",
"x": number,
"y": number,
"text": "",
"reason": ""
}
⚠️ Strict output formatting is critical for reliable execution.
Step 4: Real Mobile Execution (The Core of “Hand-Poking”)
AutoGLM translates AI decisions into ADB commands.
Tap
adb shell input tap 520 1680
Swipe
adb shell input swipe 500 1600 500 400
Text Input
adb shell input text "hello"
This is the moment where AI decisions become real physical actions on the phone.
The Core AutoGLM Agent Loop
During execution, the Agent continuously runs:
Screenshot
→ Screen Understanding
→ Action Decision
→ Execution
→ State Validation
→ Next Iteration
When issues occur (pop-ups, delays, unchanged screens), the Agent may:
-
Wait
-
Retry
-
Choose an alternative action
This adaptability is what makes Agents more robust than scripts.
Minimal Execution Logic (Conceptual)
while not task_finished:
screenshot()
action = agent.decide(screen)
execute(action)
validate_state()
The Agent stops when:
-
The task is completed
-
The maximum step count is reached
-
A critical error occurs
Common Use Cases
-
Mobile app testing and QA
-
AI-powered phone assistants
-
Internal workflow automation
-
Operating systems without APIs
-
Embodied AI research
Production Best Practices
-
Always enforce a maximum step limit
-
Log screenshots and actions
-
Normalize screen resolution
-
Validate workflows on emulators before real devices
-
Follow legal, privacy, and platform policies
FAQ
How is AutoGLM different from traditional UI automation tools?
Traditional tools rely on fixed rules and coordinates, while AutoGLM relies on visual understanding and reasoning.
Can AutoGLM run on a VPS?
Yes. Running AutoGLM on a VPS with Android emulators is a common and stable setup.
Is a GPU required?
No. CPU-only execution works well; GPUs mainly improve speed.
Can AutoGLM control real phones?
Yes. Any Android device accessible via ADB can be controlled.
Is AutoGLM suitable for commercial use?
Yes, as long as the use case complies with laws, privacy regulations, and platform policies.
Conclusion
AutoGLM moves AI beyond conversation and into real-world mobile execution.
By combining:
-
AI Agents
-
Visual understanding
-
Real phone control
you can deploy AI systems that operate directly inside mobile apps — even when no APIs exist.
This represents a major step forward for embodied AI in production environments.
