prediction_models

Specify Models A-J behavior, dependencies, and execution parameters for lottery prediction.

11|4|Updated Feb 2, 2025
One-click install
npx skills add https://github.com/konglr/Lottery --skill prediction-models
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: prediction_models
Source: https://github.com/konglr/Lottery/tree/main
Command: npx skills add https://github.com/konglr/Lottery --skill prediction-models

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This Skill organizes how the project’s multi-model lottery prediction engine generates recommendations from historical lottery patterns, statistics, and modeled probability distributions.

Core Features & Use Cases

  • Multi-model ensemble design (Models A-J): Centralizes different modeling philosophies—statistical similarity, ML classifiers (RF/XGBoost/LightGBM/CatBoost), sequence learning (LSTM), probabilistic state modeling (HMM), extreme-value mean reversion (EVT), Poisson-based omission pressure (J), and heuristic search (GA).
  • Model-specific assumptions and targets: Defines what each model tries to learn (e.g., omission pressure, hidden mode transitions, extreme deviation rebound, morphological match fitness) and how it maps to predicted number probabilities.
  • Unified execution via the project runner: Documents that all models are dispatched through the common entry point (multi_model.py) using a consistent interface and method selector.

Quick Start

Ask the assistant to “Summarize Models A-J and explain how to run multi_model.py for SSQ using --method A,G,H.”

Frequently Asked Questions about prediction_models

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I build multi-model lottery predictions using machine learning and statistical patterns?

To build multi-model lottery predictions, this Skill specifies a unified engine integrating statistical similarity, ML classifiers, LSTM, HMM, EVT, and heuristic search to transform historical patterns into per-number probability outputs.

What is the best way to combine ensemble modeling approaches like XGBoost and LSTM for time-series feature prediction?

The best way to combine ensemble modeling approaches is through a unified execution runner that dispatches models like XGBoost, LightGBM, and LSTM via a consistent interface and method selector for orchestrated probability scoring.

How do I configure and run multi_model.py to execute specific lottery prediction models?

You configure and run multi_model.py by using a method selector argument, such as --method A,G,H, to dispatch specific model behaviors defined within the engine for consistent downstream orchestration.

Can I use heuristic search and omission-based signals together for probability scoring?

Yes, you can use heuristic search alongside omission-based signals; the engine defines specific models that map omission pressure, morphological match fitness, and extreme deviation rebound to predicted number probabilities.

Does this multi-model prediction engine support lottery types other than SSQ?

Yes, the multi-model prediction engine supports SSQ and other configured lottery types by transforming feature windows, omission-based signals, and pattern morphology targets into per-number probability outputs.

What are the limitations of using statistical patterns and machine learning for lottery prediction?

A limitation is that each model relies on specific assumptions, such as hidden mode transitions or extreme deviation rebound, meaning outputs are modeled probabilities from historical patterns rather than deterministic lottery guarantees.