Claude-Patent-Creator

🥈Silver

USPTO patent creation system with MCP server + Claude Code plugin. Hybrid RAG search over MPEP/USC/CFR, BigQuery access to 76M+ patents, automated 35 USC 112 compliance checks, prior art search, diagram generation. GPU-accelerated with skills and autonomous agents.

8410Updated 1mo ago

Intermediate30min to implementautomation

Saves ~150 min per use

Quick InstallView Source

git clone https://github.com/RobThePCGuy/Claude-Patent-Creator.git

Works with:

Claude

Overview

About This Skill

How to Use

["Install the USPTO-MCP server and Claude Code plugin, then configure API keys for BigQuery and USPTO Bulk Data.","Run `patent-creator --init [INVENTION_NAME]` to generate a project directory with MPEP-compliant templates.","Populate the [TECHNICAL_SPECIFICATIONS] and [USPC_CLASS] placeholders in the prompt template using your invention's details.","Execute the prompt in Claude with `patent-creator --generate \"[PASTE_PROMPT]\" --output draft_v1.docx` to produce a formatted draft.","Use `patent-creator --validate 35usc112` to run automated compliance checks against MPEP §2173-2174 and flag issues.","Tip: For complex inventions, run `prior-art-search --query \"[KEYWORDS]\" --class [CPC_CLASS]` to identify relevant patents before drafting claims."]

Setup & Installation

Quick Install

No install command available. Check the GitHub repository for manual installation instructions.

Alternative Install (Git Clone)

git clone https://github.com/RobThePCGuy/Claude-Patent-Creator

Requirements

Claude Code or compatible AI agent
Works with: Claude

Quick Start Guide

Install the Skill

Copy the install command above and run it in your terminal.

Open Your AI Agent

Launch Claude Code, Cursor, or your preferred AI coding agent.

Try It Out

Use the prompt template or examples below to test the skill.

Customize

Adapt the skill to your specific use case and workflow.

Usage Examples

Prompt Template

Generate a provisional patent application draft for [INVENTION_NAME] using USPTO-compliant formatting. Include: (1) a detailed description of the invention with [TECHNICAL_SPECIFICATIONS], (2) at least 3 independent claims under 35 USC 112(b) for [INDEPENDENT_CLAIM_TYPES], (3) 5-7 dependent claims, (4) an abstract of 150 words or less, and (5) a brief summary of the drawings. Prioritize MPEP §2173-2174 for claim clarity. Cross-reference with relevant [USPC_CLASS] or [CPC_CLASS] sections. Flag any potential 35 USC 101 issues.

Example Output

PROVISIONAL PATENT APPLICATION

**Title:** Self-Adjusting Solar Panel Mounting System with AI-Optimized Tracking

**Field of the Invention:** This invention relates to solar energy systems, specifically to a mounting apparatus for photovoltaic panels that automatically adjusts orientation based on real-time weather data and energy optimization algorithms.

**Background:** Current solar panel systems rely on fixed mounts or manual tracking mechanisms, which fail to maximize energy capture during variable weather conditions. Prior art (US 10,892,345 B2) describes basic tracking systems but lacks AI integration for predictive adjustments.

**Summary of Invention:** The system comprises: (1) a dual-axis motorized mount with load sensors, (2) an onboard AI processor running a lightweight neural network (trained on 2.3M weather patterns), (3) a wireless interface to NOAA weather feeds, and (4) a fail-safe mechanism that defaults to fixed position during extreme wind conditions (>60 mph). Key technical specifications include: ±0.1° angular precision, 99.8% uptime in field tests (n=1,247), and 18.7% average energy yield improvement over fixed mounts.

**Detailed Description:** The mount assembly includes a corrosion-resistant aluminum frame with integrated strain gauges (accuracy: ±0.5N) that detect panel stress. The AI processor (NVIDIA Jetson Orin NX) runs a quantized LSTM model (1.2M parameters) trained on 5 years of solar irradiance data from [LOCATION]. Claims recite: (1) A system comprising a motorized mount and AI processor configured to adjust panel orientation based on predicted weather patterns, (2) The system of claim 1 wherein the processor uses a neural network trained on historical weather data to generate adjustment commands, (3) A method for operating the system including receiving weather predictions and transmitting motor control signals.

**Claims:**
1. A solar panel mounting system comprising:
a motorized dual-axis mount;
an AI processor operatively connected to said mount;
wherein said processor is configured to:
(a) receive real-time weather data;
(b) predict optimal panel orientation using a trained neural network; and
(c) transmit adjustment commands to said mount.

2. The system of claim 1, wherein said neural network is trained on historical weather patterns from at least 3 geographic regions.

3. The system of claim 1, further comprising load sensors that detect wind pressure and override said adjustment commands when wind pressure exceeds a threshold.

**Abstract:** A solar panel mounting system with AI-driven tracking that automatically adjusts panel orientation based on predicted weather patterns, comprising a motorized mount, load sensors, and an onboard neural network processor. The system improves energy yield by 15-22% compared to fixed mounts while maintaining structural integrity during high-wind conditions.

**Drawings:** Figure 1 shows the mount assembly with labeled components (101: base plate, 102: azimuth motor, 103: elevation motor). Figure 2 illustrates the AI processor workflow. Figure 3 depicts the fail-safe mechanism in high-wind mode.

**Compliance Notes:** No 35 USC 101 issues detected. Claims comply with MPEP §2173 (definiteness). Prior art search excluded US 10,892,345 B2 as non-analogous (lacks AI integration).