gds-sphere-designer

Design and calibrate geometric spheres from raw data to anomaly detection.

Updated Apr 9, 2026
One-click install
npx skills add https://github.com/hypertopos/hypertopos-skills --skill gds-sphere-designer
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: gds-sphere-designer
Source: https://github.com/hypertopos/hypertopos-skills/tree/main/gds-sphere-designer
Command: npx skills add https://github.com/hypertopos/hypertopos-skills --skill gds-sphere-designer

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

Sphere design for AI agents exploring geometric data spaces is complex and error-prone without a structured workflow. The GDS Sphere Designer coordinates data discovery to pattern strategy, YAML generation, build, calibration, and iterative tuning, providing a repeatable path from raw data to navigable geometry.

Core Features & Use Cases

  • End-to-end design workflow: discover data, define patterns, generate sphere.yaml, build geometry, calibrate models, and verify results.
  • NB-Split support: isolate orthogonal concerns on separate entity lines to preserve signal and enable cross-pattern scoring.
  • Reference-driven domain patterns: reuse established design patterns from references to accelerate sphere creation and comparison.

Quick Start

Provide a sphere.yaml describing your data sources and patterns, then run hypertopos build to generate and verify the sphere.

Frequently Asked Questions about gds-sphere-designer

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

FAQPage Schema
How do I design geometric spheres for anomaly detection over relational data?

Sphere design for anomaly detection involves discovering data, defining patterns, generating a sphere.yaml configuration, building geometry, and calibrating models iteratively to achieve actionable anomaly detection results.

What is the best way to structure data discovery and pattern strategy for geometric data spaces?

Structuring data discovery and pattern strategy requires a phased workflow spanning discovery, design, build, and verification, leveraging reference materials for domain patterns to ensure navigable geometry.

How do I isolate orthogonal concerns when building geometry for cross-pattern scoring?

Isolating orthogonal concerns during geometry build uses NB-Split isolation strategies to separate concerns onto distinct entity lines, preserving signal integrity and enabling cross-pattern scoring.

Can I reuse established design patterns to accelerate sphere creation?

Yes, reusing established design patterns via reference-driven domain materials accelerates sphere creation, enabling rapid generation and comparison of geometric sphere configurations.

Do I need a sphere.yaml file to start building and verifying geometric spheres?

Yes, providing a sphere.yaml file describing your data sources and patterns is required to run the build process and generate, calibrate, and verify the geometric sphere.

When should I not use a single entity line for multiple geometric patterns?

Avoid using a single entity line for multiple geometric patterns when signal preservation and cross-pattern scoring are critical; instead, apply NB-Split isolation strategies to separate orthogonal concerns onto distinct entity lines.