skills/maante-game-automation/SKILL.md
MaaNTE is a MAA-based automation assistant for the game Neverness to Everness, powered by MaaFramework, supporting auto-fishing, auto-coffee-making, and cafe revenue extraction.
npx skillsauth add aradotso/trending-skills maante-game-automationInstall this skill globally with one command. Works with Claude Code, Cursor, and Windsurf.
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Skill by ara.so — Daily 2026 Skills collection.
MaaNTE is an automation assistant for the game Neverness to Everness (异环), built on MaaFramework (image-recognition-based black-box automation). It automates repetitive tasks: fishing (with auto-sell fish & auto-buy bait), coffee-making (with customer management), and cafe revenue extraction (with auto-restocking).
Download the latest release from GitHub Releases — no cloning needed:
https://github.com/1bananachicken/MaaNTE/releases
Extract and run the GUI executable directly.
git clone --recursive https://github.com/<your-username>/MaaNTE.git
cd MaaNTE
pip install -r requirements.txt
Download the MaaFramework release and extract it into the deps/ folder:
MaaNTE/
deps/
MaaFramework/
bin/
include/
lib/
MaaNTE/
├── assets/
│ └── logo.png
├── deps/ # MaaFramework binaries (not committed)
├── pipeline/ # JSON pipeline task definitions
│ ├── fishing/
│ ├── coffee/
│ └── cafe/
├── custom/ # Python custom action/recognizer scripts
├── docs/
│ └── README_en.md
├── interface.json # MFAAvalonia GUI configuration
└── main.py # Entry point (dev mode)
Tasks are defined in JSON pipeline files. Each task node specifies how to find a UI element (via image template or OCR) and what action to take.
{
"TaskName": {
"recognition": "TemplateMatch",
"template": "fishing/float.png",
"roi": [0, 0, 1280, 720],
"action": "Click",
"next": ["NextTask"],
"timeout": 10000,
"on_error": ["ErrorHandlerTask"]
}
}
| Type | Description |
|---|---|
| TemplateMatch | Find image template on screen |
| OCR | Optical character recognition |
| ColorMatch | Match pixel color |
| DirectHit | Always triggers (no recognition) |
| Action | Description |
|---|---|
| Click | Click matched region |
| Swipe | Swipe gesture |
| Key | Press keyboard key |
| StartApp | Launch application |
| StopApp | Stop application |
| Custom | Call Python custom action |
Custom actions let you write Python logic triggered from pipeline tasks.
# custom/my_action.py
from maa.agent.agent_server import AgentServer
from maa.custom_action import CustomAction
from maa.context import Context
from maa.define import RectType
import json
class MyCustomAction(CustomAction):
def run(
self,
context: Context,
argv: CustomAction.RunArg,
) -> CustomAction.RunResult:
# Access current task arguments
task_name = argv.task_name
custom_param = json.loads(argv.custom_action_param)
# Take a screenshot and find something
image = context.tasker.controller.cached_image
# Run a sub-pipeline task
context.run_pipeline("AnotherTask")
# Click at specific coordinates
context.tasker.controller.post_click(640, 360).wait()
return CustomAction.RunResult(success=True)
# Register and start agent server
if __name__ == "__main__":
AgentServer.start_up(AgentServer.parse_argv())
server = AgentServer()
server.register_custom_action("MyCustomAction", MyCustomAction())
server.join()
{
"TriggerMyAction": {
"recognition": "DirectHit",
"action": "Custom",
"custom_action": "MyCustomAction",
"custom_action_param": "{\"key\": \"value\"}"
}
}
# custom/my_recognizer.py
from maa.custom_recognizer import CustomRecognizer
from maa.context import Context
import numpy as np
class MyCustomRecognizer(CustomRecognizer):
def analyze(
self,
context: Context,
argv: CustomRecognizer.AnalyzeArg,
) -> CustomRecognizer.AnalyzeResult:
image = argv.image # numpy array (H, W, C) BGR
# Your image analysis logic here
# Example: check average color in a region
roi = image[300:400, 600:700]
mean_color = np.mean(roi, axis=(0, 1))
found = mean_color[2] > 200 # high red channel
if found:
# Return bounding box of found region
return CustomRecognizer.AnalyzeResult(
box=(600, 300, 100, 100), # x, y, w, h
detail="found red region"
)
return CustomRecognizer.AnalyzeResult(box=None, detail="not found")
# Run with default config
python main.py
# The GUI is provided by MFAAvalonia (separate executable)
# For pipeline-only testing use MaaFramework CLI tools in deps/
The GUI (MFAAvalonia) reads interface.json to build the task selection UI:
{
"name": "MaaNTE",
"version": "1.0.0",
"tasks": [
{
"name": "自动钓鱼",
"entry": "StartFishing",
"option": [
{
"name": "自动卖鱼",
"cases": [
{"name": "开启", "pipeline_override": {"SellFish": {"enabled": true}}},
{"name": "关闭", "pipeline_override": {"SellFish": {"enabled": false}}}
]
}
]
},
{
"name": "自动做咖啡",
"entry": "StartCoffee"
}
],
"controller": [
{
"name": "Win32",
"type": "Win32",
"screencap": "FramePool",
"input": "Seize"
}
]
}
⚠️ Auto-coffee requires
input: "Seize"— this takes over mouse control while running.
Use the maa-support VSCode extension or MaaFramework's built-in screencap:
from maa.toolkit import Toolkit
from maa.controller import Win32Controller
Toolkit.init_option("./")
controller = Win32Controller(
hWnd=Toolkit.find_window("", "NTE_WindowTitle")
)
controller.post_connection().wait()
# Save screenshot for template
image = controller.cached_image
import cv2
cv2.imwrite("assets/template/my_element.png", image)
{
"DetectFishBite": {
"recognition": "TemplateMatch",
"template": "fishing/fish_bite_indicator.png",
"threshold": 0.85,
"roi": [500, 400, 300, 200],
"action": "Click",
"next": ["RecastLine"],
"timeout": 30000
}
}
The extension lets you run individual pipeline nodes and visualize recognition results directly in the editor.
# Always branch from dev for new features
git checkout dev
git pull upstream dev
git checkout -b feature/my-new-task
# Add pipeline JSON in pipeline/
# Add any custom Python in custom/
# Update interface.json to expose task in GUI
git add .
git commit -m "feat: add auto-xxx task"
git push origin feature/my-new-task
# Open PR targeting the dev branch
# Debug: lower threshold temporarily
{
"MyTask": {
"recognition": "TemplateMatch",
"template": "my_template.png",
"threshold": 0.7, # default 0.8, lower = more lenient
"roi": [0, 0, 1280, 720]
}
}
from maa.toolkit import Toolkit
# List all available windows
windows = Toolkit.find_window_list("", "")
for w in windows:
print(f"hwnd={w.hwnd} class={w.class_name} title={w.window_name}")
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